mhurhangee/patent-ind-claim-en huggingface dataset:
A system for inhibiting contamination of a medical device, comprising: a first shield positionable on a torso of a subject , wherein the first shield inhibits transmission of contaminants through the first shield ; a wearable harness of a medical device positionable over the first shield ; a plurality of engines coupled to the wearable harness , wherein the plurality of engines apply, during use, an oscillation force to at least one of a plurality of treatment areas such that at least some secretions in an airway within the subject substantially adjacent to the treatment areas are mobilized; and a second shield positionable over the wearable harness such that the wearable harness is positioned between the first shield and the second shield , wherein the second shield inhibits transmission of contaminants through the second shield , wherein the second shield comprises an opening such that a controller of the wearable harness is physically positionable through the opening and a conduit that functions as a container for the controller to protect the controller from contaminants, wherein the conduit comprises a first end of the conduit that is coupled to the opening and a second end of the conduit that is opposing the first end and is closed. a first shield positionable on a torso of a subject , wherein the first shield inhibits transmission of contaminants through the first shield ; a wearable harness of a medical device positionable over the first shield ; a plurality of engines coupled to the wearable harness , wherein the plurality of engines apply, during use, an oscillation force to at least one of a plurality of treatment areas such that at least some secretions in an airway within the subject substantially adjacent to the treatment areas are mobilized; and a second shield positionable over the wearable harness such that the wearable harness is positioned between the first shield and the second shield , wherein the second shield inhibits transmission of contaminants through the second shield , wherein the second shield comprises an opening such that a controller of the wearable harness is physically positionable through the opening and a conduit that functions as a container for the controller to protect the controller from contaminants, wherein the conduit comprises a first end of the conduit that is coupled to the opening and a second end of the conduit that is opposing the first end and is closed.
Rail contact element for drop off detection, wherein the rail contact element is mountable to a rail and comprises a spring element , a main body which holds the spring element and an optical fibre , wherein the spring element is in a tension state or in a relax state depending on a mounting state of the rail contact element, characterized in that the optical fibre comprises an outlet surface for emitting a light beam , that the rail contact element further comprises a reflector element , and that the spring element , the reflector element and the optical fibre are arranged so that the influence of the reflector element on the light beam is different in the tension state than in the relax state. that the optical fibre comprises an outlet surface for emitting a light beam , that the rail contact element further comprises a reflector element , and that the spring element , the reflector element and the optical fibre are arranged so that the influence of the reflector element on the light beam is different in the tension state than in the relax state.
A method for predicting risk of pre-eclampsia in a pregnant individual, the method comprising: measuring biochemical markers including an RBP4 biochemical marker and a PlGF biochemical marker in a blood sample obtained from the pregnant individual to determine biomarker levels including an RBP4 biomarker level and a PlGF biomarker level; identifying, by a processor of a computing device, for each of the measured biochemical markers, a difference between the measured biomarker level and a corresponding predetermined control level; and responsive to the identifying, determining, by the processor, a prediction corresponding to a relative risk of the pregnant individual developing pre-eclampsia. measuring biochemical markers including an RBP4 biochemical marker and a PlGF biochemical marker in a blood sample obtained from the pregnant individual to determine biomarker levels including an RBP4 biomarker level and a PlGF biomarker level; identifying, by a processor of a computing device, for each of the measured biochemical markers, a difference between the measured biomarker level and a corresponding predetermined control level; and responsive to the identifying, determining, by the processor, a prediction corresponding to a relative risk of the pregnant individual developing pre-eclampsia.
A connector comprising a housing and at least a first and a second strand fastener unit , wherein the housing presents an internal chamber opening out via an opening in a rear face of the housing; each of said first and second strand fastener units presents an axis (X) and includes a contact and a sleeve , said contact being configured to be fastened to one end of a strand that has previously been passed through the sleeve ; the connector presents, for each of said first and second strand fastener units , a bayonet coupling which comprises at least a guide surface formed in the housing and enables at least part of the strand fastener unit to be mounted inside the internal chamber of the housing; and the housing and said first and second strand fastener units are configured in such a manner that, during said mounting, said first and second strand fastener units are inserted via said common opening into the housing. the housing presents an internal chamber opening out via an opening in a rear face of the housing; each of said first and second strand fastener units presents an axis (X) and includes a contact and a sleeve , said contact being configured to be fastened to one end of a strand that has previously been passed through the sleeve ; the connector presents, for each of said first and second strand fastener units , a bayonet coupling which comprises at least a guide surface formed in the housing and enables at least part of the strand fastener unit to be mounted inside the internal chamber of the housing; and the housing and said first and second strand fastener units are configured in such a manner that, during said mounting, said first and second strand fastener units are inserted via said common opening into the housing.
A nozzle plate , comprising: a base having a through-hole to be a nozzle ; and a metal film covering at least an inner wall of the through-hole of the base , wherein the base contains nickel as a main component, the metal film contains nickel and palladium as main components, characterized in that , in a cross section including the base and the metal film , the metal film has a palladium content variation, which is the difference between the maximum and minimum values, smaller than or equal to 4 at% on an imaginary straight line A in the metal film along an interface between the base and the metal film , and in that the base includes, at a location adjacent to the interface, an oxygen rich layer having a higher oxygen content than a middle portion of the base. a base having a through-hole to be a nozzle ; and a metal film covering at least an inner wall of the through-hole of the base , wherein the base contains nickel as a main component, the metal film contains nickel and palladium as main components, characterized in that , in a cross section including the base and the metal film , the metal film has a palladium content variation, which is the difference between the maximum and minimum values, smaller than or equal to 4 at% on an imaginary straight line A in the metal film along an interface between the base and the metal film , and in that the base includes, at a location adjacent to the interface, an oxygen rich layer having a higher oxygen content than a middle portion of the base.
A method for decoding an image, the method comprising: receiving a bitstream including image information; decoding a base block size information on a size of a base block having a same quantization parameter and a residual quantization parameter of a decoding object unit from the bitstream; obtaining a predicted quantization parameter of the decoding object unit based on the base block size information; and determining a quantization parameter of the decoding object unit using the predicted quantization parameter and the residual quantization parameter; wherein the base block size information is defined in a Picture Parameter Set and the residual quantization parameter is indicated in a transform unit TU, wherein the base block size information is decoded in a variable length decoding, and wherein, when the size of the decoding object unit is smaller than the size of the base block, the decoding object unit is included in an inner part of the base block and the predicted quantization parameter of the decoding object unit is derived a same value as a predicted quantization parameter of other units inside the base block. receiving a bitstream including image information; decoding a base block size information on a size of a base block having a same quantization parameter and a residual quantization parameter of a decoding object unit from the bitstream; obtaining a predicted quantization parameter of the decoding object unit based on the base block size information; and determining a quantization parameter of the decoding object unit using the predicted quantization parameter and the residual quantization parameter; wherein the base block size information is defined in a Picture Parameter Set and the residual quantization parameter is indicated in a transform unit TU, wherein the base block size information is decoded in a variable length decoding, and wherein, when the size of the decoding object unit is smaller than the size of the base block, the decoding object unit is included in an inner part of the base block and the predicted quantization parameter of the decoding object unit is derived a same value as a predicted quantization parameter of other units inside the base block.
A computer-implemented method for facilitating content capturing on a mobile device , comprising: identifying a current position of the mobile device during a content capturing preparation stage using a position sensor or a content capture component of the mobile device, the content to be captured comprising one or more of video, image or audio content; determining whether the current position of the mobile device corresponds to a landscape orientation or a portrait orientation; when the current position of the mobile device corresponds to the portrait orientation, providing, by the mobile device, a prompt via visual means and/or audible means to instruct a user of the mobile device to move the mobile device to the landscape orientation and blocking the content capturing capability until the identification of a change in the current position of the mobile device from the portrait orientation to the landscape orientation; and when the current position of the mobile device corresponds to the landscape orientation, refraining from providing the prompt and initiating the capture of content by the content capture component of the mobile device; and in the event that it is identified that the mobile device has changed positions away from the landscape orientation whilst the mobile device is capturing content, providing the prompt again and blocking the mobile device from further capturing content until the current position is changed to the landscape orientation. identifying a current position of the mobile device during a content capturing preparation stage using a position sensor or a content capture component of the mobile device, the content to be captured comprising one or more of video, image or audio content; determining whether the current position of the mobile device corresponds to a landscape orientation or a portrait orientation; when the current position of the mobile device corresponds to the portrait orientation, providing, by the mobile device, a prompt via visual means and/or audible means to instruct a user of the mobile device to move the mobile device to the landscape orientation and blocking the content capturing capability until the identification of a change in the current position of the mobile device from the portrait orientation to the landscape orientation; and when the current position of the mobile device corresponds to the landscape orientation, refraining from providing the prompt and initiating the capture of content by the content capture component of the mobile device; and in the event that it is identified that the mobile device has changed positions away from the landscape orientation whilst the mobile device is capturing content, providing the prompt again and blocking the mobile device from further capturing content until the current position is changed to the landscape orientation.
Sensor element for measuring pressure and temperature, comprising: - a main body having a membrane and an edge zone that is arranged around the membrane , - an electrically conductive layer , having a first region that is arranged over the membrane of the main body , and a second region that is arranged over the edge zone of the main body , - wherein the membrane is configured as a pressure-sensitive zone of the main body such that the membrane undergoes deformation as a function of a pressure difference between the upper side (O110) and the underside (U110) of the membrane , - wherein the edge zone is configured as a pressure-insensitive zone of the main body , - wherein the electrically conductive layer in the second region is structured such that, in the second region of the electrically conductive layer, at least one temperature-dependent resistor is formed, wherein the electrically conductive layer in the first region is structured such that the electrically conductive layer , in the first region , comprises at least one pressure-dependent resistor , characterized in that the electrically conductive layer , in the first region and in the second region , is formed of the same material. - a main body having a membrane and an edge zone that is arranged around the membrane , - an electrically conductive layer , having a first region that is arranged over the membrane of the main body , and a second region that is arranged over the edge zone of the main body , - wherein the membrane is configured as a pressure-sensitive zone of the main body such that the membrane undergoes deformation as a function of a pressure difference between the upper side (O110) and the underside (U110) of the membrane , - wherein the edge zone is configured as a pressure-insensitive zone of the main body , - wherein the electrically conductive layer in the second region is structured such that, in the second region of the electrically conductive layer, at least one temperature-dependent resistor is formed, wherein the electrically conductive layer in the first region is structured such that the electrically conductive layer , in the first region , comprises at least one pressure-dependent resistor , characterized in that
A non-transitory computer readable medium having instructions stored thereon that, when executed by a processor, cause the processor to provide cloud based identity management, the providing comprising: receiving a request from an application by a web gate for a resource, wherein the request comprises an operation on a resource type out of a plurality of resource types and the request specifies a tenant out of a plurality of tenants , wherein the resource type comprises a schema definition, and the schema definition comprises a plurality of attributes and metadata for each of the attributes; accessing a microservice based on the request; resolving the resource type by determining the resource type, retrieving corresponding schema and schema definitions and determining which attributes are required for the resource type based on the schema; validating that the operation is supported by the resource type based on the determined attributes required for the resource type; getting a data provider associated with the tenant; calling the data provider to perform the operation; and returning the resource. receiving a request from an application by a web gate for a resource, wherein the request comprises an operation on a resource type out of a plurality of resource types and the request specifies a tenant out of a plurality of tenants , wherein the resource type comprises a schema definition, and the schema definition comprises a plurality of attributes and metadata for each of the attributes; accessing a microservice based on the request; resolving the resource type by determining the resource type, retrieving corresponding schema and schema definitions and determining which attributes are required for the resource type based on the schema; validating that the operation is supported by the resource type based on the determined attributes required for the resource type; getting a data provider associated with the tenant; calling the data provider to perform the operation; and returning the resource.
A method for coating an interconnect for a solid oxide cell (SOC) stack, said method comprising - providing an interconnect substrate comprising Cr and Fe, - coating the interconnect substrate with a first metallic layer by electroplating and/or electroless plating, - coating the resulting structure with a second layer of metallic cobalt by electroplating and/or electroless plating, - coating the resulting structure with a layer of metallic copper by ion-exchange plating, thereby forming a metallic copper-cobalt coating on the interconnect. - providing an interconnect substrate comprising Cr and Fe, - coating the interconnect substrate with a first metallic layer by electroplating and/or electroless plating, - coating the resulting structure with a second layer of metallic cobalt by electroplating and/or electroless plating, - coating the resulting structure with a layer of metallic copper by ion-exchange plating,
A decoding apparatus , comprising: a mono signal decoding unit arranged to decode a mono signal, which is a down-mix signal of a multi-channel signal, from a bitstream in which the multi-channel signal is encoded; a frequency band determination unit arranged to ascertain whether a phase parameter of a plurality of channels exists in the bitstream, based on encoding information from the bitstream, and when the phase parameter exists in the bitstream, to determine a frequency band of the mono signal which the phase parameter is to be applied; a parameter decoding unit arranged to decode the phase parameter from the bitstream; and an up-mixing unit arranged to up-mix the mono signal by applying the phase parameter to the frequency band. a mono signal decoding unit arranged to decode a mono signal, which is a down-mix signal of a multi-channel signal, from a bitstream in which the multi-channel signal is encoded; a frequency band determination unit arranged to ascertain whether a phase parameter of a plurality of channels exists in the bitstream, based on encoding information from the bitstream, and when the phase parameter exists in the bitstream, to determine a frequency band of the mono signal which the phase parameter is to be applied; a parameter decoding unit arranged to decode the phase parameter from the bitstream; and an up-mixing unit arranged to up-mix the mono signal by applying the phase parameter to the frequency band.
Platinum seat belt anchorage for vehicle automotive, having a first part with guidance to guide the sliding of a seat belt , platinum with a second part with locking means to lock a seat back on the plate , platinum also having a deformable section connecting the first and the second parts, designed to deform, under the effect of a tensile force applied to the locking means and having an intensity greater than a predetermined threshold value, so that the deformation causes a relative rotation of the first and second parts to absorb part of the energy of A shock, the deformable section of which contains a first line of fold in a sheet connecting the first and second parts, the first line of fold constituting an axis around which the relative rotation occurs when the deformable section is deformed , characterized as the deformable section contains a second line of fold in sheet forming a triangle with the first line of fold and a lateral edge of sheet .
Method for fluidization of a slurry comprising a fluid fraction and a solid fraction, where the slurry is first pumped through a knife shredder pump and secondly passed through an inverted funnel having an inlet orifice having a first cross-sectional area and an outlet having a cross-sectional outlet area, where the outlet is larger than the inlet orifice , wherein the funnel is exchangeable, by means of a flange arranged around the inlet opening , said flange being adapted to be fitted against a supportive flange adjacent the outlet from the pump , such that a funnel suitable for the specific slurry to be treated may be selected and mounted, where the slurry is injected into a pipe having a cross-sectional area larger than the outlet area, such that the slurry is subjected to a substantial under-pressure upon leaving the outlet .
A lamination method of substrates, comprising steps of: (a) applying a liquid silicone optical bonding agent to a first substrate, (b) activating the liquid silicone optical bonding agent in step (a) by an irradiation with a wavelength range of 200nm to 500nm, wherein the duration of the irradiation is less than the gel time of the liquid silicone optical bonding agent, (c) applying a second substrate to the activated liquid silicone optical bonding agent before the liquid silicone optical bonding agent is gelled, the liquid silicone optical bonding agent being an irradiation curable one-component silicone material free of acrylic units, comprising a polysiloxane containing at least two alkenyl groups, a polyhydrosiloxane having on average at least two SiH groups per molecule, a silicone resin, an oxide filler with BET area between 80-400 m 2 /g and a photoactive platinum catalyst. (a) applying a liquid silicone optical bonding agent to a first substrate, (b) activating the liquid silicone optical bonding agent in step (a) by an irradiation with a wavelength range of 200nm to 500nm, wherein the duration of the irradiation is less than the gel time of the liquid silicone optical bonding agent, (c) applying a second substrate to the activated liquid silicone optical bonding agent before the liquid silicone optical bonding agent is gelled, the liquid silicone optical bonding agent being an irradiation curable one-component silicone material free of acrylic units, comprising a polysiloxane containing at least two alkenyl groups, a polyhydrosiloxane having on average at least two SiH groups per molecule, a silicone resin, an oxide filler with BET area between 80-400 m 2 /g and a photoactive platinum catalyst.