Designing with Green Intention

[Music]

done with that water bottle

no problem go ahead and toss it in the

recycling bin and hope it doesn’t end up

in the landfills

we as consumers can do everything in our

power to shop at thrift stores and buy

second hand

to compost our food scraps at home or

even eliminate single-use plastics

and try to live zero waste but what

about complex systems

like phones cars and planes there’s very

little that you and i can do

in order to ensure that each material

and each part is handled responsibly

this is up to government regulation and

companies to ensure this

an alarming 10 to 11 million vehicles

reach their end of life every single

year and while the average individual

understands the complexities involved

with developing and designing something

like a car

most don’t consider the difficulties

especially as it relates to recycling

to combat this it’s time we start

understanding

the challenges that these systems are

imposing on us and design with green

intention

but what is green intention it’s the

idea of designing something with the

intent to recycle it

now let’s take a step back and draw some

inspiration from nature

when an organism reaches its end of life

nature has a plan on how to recycle it

decomposers can recycle dead animal and

plant matter

into carbon and nitrogen which gets

released into the soil

air and water as nutrients for new

plants and animals

this helps keep the flow of resources

available in the environment

similarly we need to have a plan for

when our products reach their end of

life

now let’s take a look at the life cycle

of product

first raw materials are mined and

harvested

directly from the earth they then go

through some sort of processing

or manufacturing and then the product be

it a car

phone plane or electronic the product

hits the market

there are also social and marketing

pressures associated with the lifecycle

of a product

like for example you might have a phone

that’s totally functional but decide to

toss it because it’s no longer

fashionable or current it’s up to the

user to determine how long

the lifetime of the product will be

another example is if you have a car

and you use it for 20 years and all of a

sudden you want a new one or you totaled

it then this

and this these are car graveyards and

they’re actually common throughout the

entire world

now raise your hand if you want to be

the person taking care of this mess

yeah me either and to make it even more

difficult

there are no instructions there are a

bunch of materials mixed into what looks

like one part

the parts are hard to remove from one

another and there is a coating of paint

all over the car which is practically

impossible to recover to top it off

there are flaming batteries in there

that will explode on you

if mishandled

this is footage of someone making a tiny

puncture in a phone’s lithium ion

battery pouch

as you can see it burst into flames

almost immediately

and releases a toxic odor when the

lithium from the battery reacts with

moisture and oxygen in the air

in a matter of seconds this tiny device

that everybody has in their back pocket

can do as much damage as a hand grenade

in an electric car there are around 7

000

of these lithium-ion batteries now just

try to imagine the damage

that could occur if a recycler goes into

work and accidentally mishandles

a charged car battery and multiply it

again to look like this

it feels impossible right

i have worked as a recycling innovation

engineer at a tech company

i have hands-on experience dismantling

recycling and disassembling electronics

i know what it is like to be in charge

of a mess like this

from that experience i can tell you that

it’s going to take time

maybe years for r d to figure out how to

recycle the device

and once they do it will take it will

cost a lot of money

to pay for the associated operating

labor and to implement the disassembly

device

and after all this time money and effort

it will pull more resources from our

environment

it’s like we’re working backwards it’s a

never-ending cycle if you begin to think

about how to recycle a recycling device

it’s time we start to challenge the

status quo and design with green

intention

we are the future of design architecture

engineering

retail there might be future policy

makers or educators in this room

who can and should build this notion

into their curriculum

it is imperative that we change our

thinking and our

intention to understand these concepts

for our planet’s greater good

so before diving into the details of

product design let me tell you a bit

more about recycling

first at its core recycling depends upon

ease of disassembly

think about it the easier it is to take

something apart the faster it is to

determine the materials within it

and send it to its respective downstream

recycler like for example

metal will get sent to a smelter whereas

glass gets crushed

melted and reformed currently designers

and recyclers don’t work together once

the product reaches its end of life

that’s when the recycler has to figure

out how to take care of it

this is why designers recyclers and

engineers should collaborate from the

start of product design

this is beneficial from both a

sustainability and business perspective

that being said they should work

together to build disassembly

instructions into a manual

when the product is first released to

avoid confusion

when the time comes for it to be

recycled

next source from recycled materials

don’t rely on taking from the earth

every time that you need something

adidas has been making these ocean

plastic shoes

think about it ocean plastic has

negative value

and they are recovering it and selling

it to you for over a hundred dollars

create a take back system like apple

trading

apple pays their users a small fee in

exchange for old devices so that they

are the ones responsible

for covering and reusing the precious

materials within the device

discourage the production and

consumption of single-use

products and plastics like plastic bags

plastic

water bottles even paper towels if these

items take 450 years to decompose

why are they only being used once it

doesn’t make any sense

packaging as it relates to products and

food is highly wasteful and this is a

problem that should have been taken care

of yesterday

a more realistic use of single-use

devices is within the medical field

where equipment needs to be sterilized

prior to a procedure or surgery

to avoid contamination like syringes and

pipettes and other medical devices

this is a good example of where

innovation and proper waste management

is necessary rather than halting

production altogether

so these are a few ideas that scratch

the surface of recycling

let’s look at more about what makes a

product of a good product

first durability durability has to do

with how it’s made

the materials within it and its

structural integrity

next is aesthetics aesthetics has to do

with how it looks

how it how the impression is the colors

the paints

and the overall feel and finally if it’s

an electronic it must have a power

source

like a battery a charging cable or fuel

so how can we implement green design and

green attention

into these three elements that make a

good product first

aesthetics avoid using contaminants use

bioswords paints and glues where you can

also avoid using fasteners and screws

the less materials there are the better

don’t compromise on the look of the

product

but keep these ideas in mind while

designing

next looking at durability don’t mix

materials

for example an everyday hanger could be

made from wood

and metal or boxed water which is made

from paper

and plastic these items require an extra

separation step when the time comes for

recycling

instead just design with one material in

mind like

a fully plastic or fully wooden hanger

or fully aluminum can

on a larger scale something like a car

door will go through a shrimp and

sortation

and once the pieces are shredded all the

materials will be thoroughly mixed

together

and sortation is a lengthy sequential

process that includes

separations like vibration density

magnetic

even stainless steel separation and

these often yield low purity results

it’s better if we reduce the amount of

materials that we have to begin with

so that these output batches will be

more pure and better for reusability

and finally looking at power electronics

contain

precious metals like gold silver

platinum and even copper and also rare

earth magnets

it is imperative for economics that

these are the easiest to remove

since they’re the hardest ones to mine

from the earth and the most expensive

ones

reusing and recovering these precious

metals properly is a huge step in the

right direction

and while precious metals occur in small

quantities

they can really add up all 5 000

of the 2020 japan summer olympic medals

were made from recovered precious metals

from recycled electronics

that’s 6.21 million

phones diverted from the landfills and

their precious metals all recovered

these ideas scratched the surface but

the future of our products and our

planet is in our hands

and while these are great first steps

for short term

and small scale change we need something

that disrupts and disregards the status

quo

for true exponential long-term change

fields like creative biomimicry or soft

robotics

even creative reuse projects like those

japan olympic medals

and the adidas plastic shoes and of

course

reducing the amount of flammable and

toxic chemicals

used in our power sources

now i mentioned earlier that nature has

a plan for when an organism dies and

similarly we need to have a plan for

when our

when our products reach their end of

life

but what if we take that a step further

and look at how nature creates in the

first place

everything in nature is grown whereas

everything that is man-made is assembled

part by part or brick by brick neri

oxman from the mit

media lab has taken this notion to the

next level

at the crossroads of environmental

biology

art architecture and computational

design

she has been creating structures made of

one single material

and one single part she can control

parameters of her structures like

movement

mobility structural integrity

and rigidity all by simply manipulating

its material properties

this is an image of nary oxman’s silk

dome

it covers a hundred square feet and was

grown

he were grown by 6 000 live silkworms

compare this to a man-made dome which is

made up of a bunch of screws fasteners

and hundreds of industrial metal rods

all of oxman’s creations are sourced

from nature

and more importantly they’re designed

for decay hear that

designed for decay meaning they return

straight back to nature when the time

comes for them to be recycled

her research is the epitome of designing

with green attention

now another noteworthy field is soft

robotics

soft robots mimic the way living

organisms move and adapt to their

environment

this is footage of a harvard designed

octopus-inspired robot

it uses microfluidic movements to move

compared to a typical robot which would

use

rigid mechanical movements in the case

of a robot’s end effector

and an end effector is the claw or the

hand at the end of a robotic arm

soft robots are made up of less

materials less fasteners and less screws

and this is in line with the principles

of designing with green intention

compared to a typical robotic claw or

hand which would be made up of

several parts screws and fasteners

i want to make it clear that green

design and green intention should not be

seen as a burden

or a chore that slows down progress but

rather something that facilitates it

and allows admin advancements in a more

sustainable way

finally looking at power it is so

important that we eliminate the use of

toxic and flammable chemicals

companies like aminox have developed

this lithium-ion battery that you could

shoot a bullet through with no flaming

reaction from the battery

this is already worlds better for the

recycler knowing that they can go into

work without the worry of a battery

exploding on them

at the crossroads of creative biomimicry

soft robotics and safety power research

lies the green design revolution well

this might be

the greatest engineering challenge of

our time

creativity and technology are moving in

a direction

where we can and should reverse the

damage done to our planet

let’s make car graveyards and flaming

batteries

and single-use products a thing of the

past

the bulk of environmental damage is done

by large corporations

and it’s unfair to assume that bringing

a used reusable bag to the grocery store

is going to solve this problem

although it is a necessary step

it will take the union between

businesses and creative engineers and

decision makers

to have the greatest impact and while we

do have some personal stakes in this

it as i mentioned earlier it requires a

major disruption of the status quo

one day you might be the next person

designing the electric car

or writing environmental policy but

until then

you can still affect positive change you

can choose to vote with your dollar

and spend on products that were made

with the end of life in mind

learn how to dispose and recycle your

electronics and batteries correctly

and more importantly push your companies

to give you clear instructions on how to

do so

and finally get educated on what you can

do within your field

this is a problem that we should be

taking on so that our planet doesn’t

have to

and with that i hope you start living

with green

[Music]

intention

[音乐]

用那个水瓶

没问题继续把它扔进

回收箱,希望它不会最终

进入垃圾填埋场,

我们作为消费者可以尽我们

所能在旧货店购物和购买

二手堆肥 我们在家中的食物残渣,

甚至消除一次性塑料,

并尝试实现零浪费,但是

对于

电话汽车和飞机等复杂系统呢

这取决于政府法规和

公司,以确保

每年有 10 到 1100 万辆汽车

达到其使用寿命

,而普通人

了解

开发和设计汽车之类的东西所涉及的复杂性,

大多数人不会考虑这些困难

特别是当它与回收

利用相关时,我们是时候开始

了解这些系统

对我们施加的挑战并使用绿色

智能进行设计了 ntion

但什么是绿色意图 它

是设计一些

旨在回收它的东西的想法

现在让我们退后一步,

当有机体达到其生命尽头时从大自然中汲取一些灵感

自然有一个关于如何回收它的计划

分解者可以回收 死去的

动植物物质

转化为碳和氮,然后

释放到土壤

空气和水中,作为新

植物和动物的营养物质,

这有助于保持环境中可用资源的流动。

同样,我们需要制定

产品何时到达终点的计划

现在让我们来看看产品的生命

周期,

首先原材料是

直接从地球上开采和收获,然后

经过某种加工

或制造,然后产品

是汽车

电话飞机或电子产品

。 市场

上也存在

与产品生命周期相关的社会和营销压力

,例如,您可能拥有一部完整的

手机 功能齐全,但决定

扔掉它,因为它不再

流行或不流行,由

用户决定

产品的使用寿命是

另一个例子,如果你有一辆车

,你用了 20 年

突然 你想要一个新的,或者你

把它加起来然后这个

和这个这些是汽车墓地,

它们实际上在整个世界都很常见

如果你想成为

处理这个烂摊子的人,

我也可以举起你的手

更难的

是 没有说明

一堆材料混在一个看起来

的零件中 零件很难从另一个零件上取

下来 整个车上都有一层油漆 几乎

不可能恢复到顶部

里面有燃烧的电池,如果

处理不当会在你身上爆炸

这是有人

在手机的锂离子

电池袋

上做一个小刺的镜头,你可以看到它几乎立即起火

电池中的锂在几秒钟内

与空气中的水分和氧气发生反应时,会释放出一种有毒的

气味 7

000 块

锂离子电池现在只是

试着

想象如果回收商开始

工作并意外错误处理

充电的汽车电池并将其

再次乘以看起来像

这样感觉不可能正确

我作为回收创新工作

一家科技公司的工程师

我有拆解

回收和拆解电子产品的

实践经验 从那次经历中我知道负责这样的烂摊子是什么感觉 我可以告诉你,研发

可能需要数年时间

才能弄清楚 了解如何

回收设备

,一旦他们这样做,将

花费大量资金

来支付相关的操作

劳动力并实施拆卸

设备

和一个 经过这么长时间的金钱和努力

,它将从我们的环境中提取更多资源,

就像我们在倒退一样,这是一个

永无止境的循环如果你开始

考虑如何回收回收设备

,是时候我们开始挑战

现状和 具有绿色

意图

的设计 我们是设计建筑工程

零售的未来 在这个房间里可能会有未来的政策

制定者或教育工作者,

他们可以而且应该将这个概念

融入他们的课程

我们必须改变我们的

思维和

理解这些概念的意图

我们的星球更美好,

所以在深入了解产品设计的细节之前,

让我先告诉你

更多关于回收

的核心,回收取决于

拆卸

的容易程度,想想它越容易

拆开,就越快

确定 其中的材料

并将其发送到其各自的下游

回收站,例如

金属将被送往冶炼厂,而

玻璃 g ets crushed

melted and reformed 目前,设计师

和回收者不会一起工作,

一旦产品达到其使用寿命

,回收者就必须

弄清楚如何照顾它,

这就是为什么设计师和回收者

应该

从产品一开始就合作 设计

这从

可持续性和商业角度

来看都是有益的,据说他们应该在产品首次发布时

共同努力将拆卸

说明写入手册

,以

避免

在需要

从回收材料中回收下一个来源时产生

混淆 不要依赖于

每次你需要东西时从地球上拿走

阿迪达斯一直在让这些海洋

塑料鞋

考虑它海洋塑料具有

负价值

,他们正在回收它并

以超过一百美元的价格卖给你

创建一个回收系统,例如 苹果

交易

苹果向用户支付少量费用以

换取旧设备,以便

他们负责

能够覆盖和重复使用

设备内的贵重材料

阻止

一次性

产品和塑料(如塑料袋、

塑料

水瓶甚至纸巾)的生产和消费,如果这些

物品需要 450 年才能分解,

为什么它们只在不使用时才使用

? 没有任何意义

与产品和食品有关的包装

是高度浪费的,这是昨天

应该解决的问题

一次性设备的更现实使用

是在医疗领域

内,设备需要在使用之前进行消毒

避免注射器、

移液器和其他医疗设备等污染的程序或手术

这是一个很好的例子,说明

创新和适当的废物管理

是必要的,而不是

完全停止生产,

所以这些是一些

触及回收表面的想法

让我们看看更多 关于是什么使

产品成为好产品,

首先是耐用性耐用性

与它的制造方式有关

它内部的材料及其

结构完整性

接下来是美学美学

与它的外观

有关印象如何

颜色油漆

和整体感觉最后,如果它

是电子产品,它必须具有

像电池一样的电源充电 电缆或燃料,

那么我们如何在这三个要素中实施绿色设计和

绿色关注

,使

良好的产品首先

美观 避免使用污染物 使用

bioswords 油漆和胶水 您

也可以避免使用紧固件和

螺丝 材料越少越好

不要’ 不要在产品外观上妥协,

但在

设计

下一个考虑耐用性时请牢记这些想法 不要混合

材料

,例如日常衣架可以

由木材

和金属制成,或由纸和塑料制成的盒装水,

这些物品需要

当需要回收时,一个额外的分离步骤,

而不是只设计一种材料,

如全塑料或全塑料 更大的木衣架

或全

铝罐 像车门这样的东西

会经过虾和

分拣

,一旦碎片被切碎,所有

材料将彻底混合

在一起

,分拣是一个漫长的连续

过程,包括

振动密度磁力等分离

即使是不锈钢分离,

这些通常会产生低纯度的结果

,如果我们减少

我们必须开始使用的材料的数量会更好,

这样这些输出批次

将更纯净,更好的可重复使用性

,最后看看电力电子产品是否

含有

黄金等贵金属 银

铂,甚至铜,还有稀土

磁铁,从经济学角度来看,

这些是最容易去除的,

因为它们是最难

从地球上开采的,也是最昂贵

,正确地重复使用和回收这些

贵金属是一大步 在

正确的方向上

,虽然贵金属少量出现,

但它们可以 n 真的加起来,

2020 年日本夏季奥运会的所有 5000 枚奖牌

都是由回收电子产品中回收的贵金属制成的

其中 621 万部

手机从垃圾填埋场转移,

它们的贵金属全部回收

这些想法只是表面上,但

我们产品和我们的未来

地球掌握在我们手中

,虽然这些

是短期

和小规模变化的重要第一步,但我们需要一些

能够破坏和无视现状的东西,

以实现真正的指数级长期变化

领域,例如创意仿生学或软

机器人,

甚至像日本这样的创意再利用项目

奥运奖牌

和阿迪达斯塑料鞋,

当然还有

减少我们的电源中使用的易燃和

有毒化学物质的数量

现在我之前提到过,大自然有

一个有机体死亡的计划,

同样我们需要有一个计划,

我们什么时候死亡 产品到了生命的尽头,

但如果我们更进一步

,看看大自然是如何创造的 首先

,自然界中的一切都是生长的,而

人造的一切都是

一块

一块地组装的,麻省理工学院

媒体实验室的内里奥克斯曼在环境生物学艺术建筑和计算的十字路口将这一概念提升到了

一个新的水平

设计

她一直在创建由

一种单一材料

和一个单一部件制成的结构 她可以通过简单地操纵其材料特性来控制

她的结构的参数,例如

运动

机动性 结构完整性

和刚度

这是 nary oxman 丝质圆顶的图像,

它覆盖了一百平方 脚和

长大 他是由 6 000 只活蚕长大的

将其比作一个由

一堆螺丝紧固件

和数百个工业金属棒组成的人造圆顶

所有 oxman 的创作都

来自大自然

,更重要的是它们是 专

为衰变而

设计 为衰变而设计意味着它们

在时机成熟时直接回归自然

她的研究是绿色关注设计的缩影

现在另一个值得注意的领域是软

机器人

软机器人模仿

生物体移动和适应

环境的方式

这是哈佛大学设计的

章鱼启发机器人的镜头,

它使用微流体运动来移动

在机器人末端执行器的情况下使用刚性机械运动的典型机器人相比,

末端执行器

是机械臂末端的爪或手,

软机器人由更少的

材料组成,更少的紧固件和更少的螺钉

和 与

典型的机器人爪或手相比,这符合绿色意图设计的原则,典型的机器人爪或

手将由

多个螺钉和紧固件组成。

我想明确指出,

不应将绿色设计和绿色意图

视为负担

或者是一件会减慢进度的家务活,

而是一些可以促进进度

并最终以更可持续的方式允许管理员进步的

事情

l 考虑到电力

,我们消除

有毒和易燃

化学品的使用非常重要

在创意仿生

软机器人和安全电源研究的

十字路口,他们

可以开始工作而不必担心电池爆炸

我们可以而且应该扭转

对我们星球造成的损害的方向

让我们让汽车墓地和燃烧的

电池

和一次性产品成为

过去大部分环境破坏是

由大公司

造成的,假设带来

一个使用过的可重复使用的产品是不公平的 去杂货店买包可以

解决这个问题,

虽然这是一个必要的步骤,

但它不会 让

企业、创意工程师和

决策者

之间的联盟产生最大的影响,虽然我们

在这方面确实有一些个人利益,

但正如我之前提到的,它需要

对现状进行重大破坏,

有一天你可能成为下一个

设计 电动汽车

或编写环境政策,但在此

之前,

您仍然可以影响积极的变化,您

可以选择用您的美元投票

花在考虑到生命终结的产品上

学习如何正确处理和回收您的

电子产品和电池

等等 重要的是,推动您的公司

就如何做到这一点给出明确的指示,

并最终了解您

可以在您的领域内做什么

这是我们应该解决的问题,

以便我们的星球不必

这样做,我希望 你开始

以绿色

[音乐]的

意图生活