mhurhangee/patent-ind-claim-en huggingface dataset:
An External Counter Pulsation (ECP) Device comprising: a. an air bladder system comprising one or more helix air bladders and one or more adjunct air bladders ; b. a valve and fluid system pneumatically connected to the air bladder system wherein the valve and fluid system is configured to pressurize and depressurize the helix air bladder and the adjunct air bladders ; and c. a control system comprising a processor and one or more PPG sensors and one or more ECG sensors wherein the PPG and ECG sensors are connected to the user to collect PPG and ECG signals from the user and wherein the control system is electronically connected to the valve and fluid system to control the valve and fluid system to pressurize or depressurize the air bladders of the air bladder system based on signals detected by the sensors and wherein the adjunct air bladders is positioned at either the lower end or the upper end of the helix air bladder and is pressurized before the helix air bladder so as to direct blood flow towards desired direction, wherein each helix air bladder is shaped such that, when attached to a user's thigh, the top end of the one or more helix air bladders start from the front side of the thigh, wind around the femur in a helical fashion towards the inner thigh and the bottom end of the one or more helix air bladders end at the rear side of the knee. a. an air bladder system comprising one or more helix air bladders and one or more adjunct air bladders ; b. a valve and fluid system pneumatically connected to the air bladder system wherein the valve and fluid system is configured to pressurize and depressurize the helix air bladder and the adjunct air bladders ; and c. a control system comprising a processor and one or more PPG sensors and one or more ECG sensors wherein the PPG and ECG sensors are connected to the user to collect PPG and ECG signals from the user and wherein the control system is electronically connected to the valve and fluid system to control the valve and fluid system to pressurize or depressurize the air bladders of the air bladder system based on signals detected by the sensors and wherein the adjunct air bladders is positioned at either the lower end or the upper end of the helix air bladder and is pressurized before the helix air bladder so as to direct blood flow towards desired direction,
An LED device comprising a top current spreading layer , a top cladding layer below the top current spreading layer, an active layer below the top cladding layer, and a bottom cladding layer below the active layer,wherein the bottom cladding layer includes a bottom surface; sidewalls span the top current spreading layer, the top cladding layer, the active layer, and the bottom cladding layer, wherein the bottom surface of the bottom cladding layer extends between the sidewalls; the LED device further comprising a bottom current spreading layer pillar below the bottom cladding layer and in direct contact with the bottom cladding layer, wherein the bottom current spreading layer pillar is centrally located at and protrudes from the bottom cladding layer to confine current that flows into the active layer to an interior portion of the LED device and away from the sidewalls , and the bottom surface of the bottom cladding layer is wider than a maximum width of the bottom current spreading layer pillar , and the bottom current spreading layer pillar is doped with a first dopant type selected from the group consisting of n-type and p-type, and the top current spreading layer is doped with a second dopant type different from the first dopant type, wherein the second dopant type is selected from the group consisting of n-type and p-type; and the active layer of the LED device has a maximum width of 100 μm or less, and the bottom current spreading layer pillar has a maximum width of 10 μm or less. the bottom cladding layer includes a bottom surface; sidewalls span the top current spreading layer, the top cladding layer, the active layer, and the bottom cladding layer, wherein the bottom surface of the bottom cladding layer extends between the sidewalls; the LED device further comprising a bottom current spreading layer pillar below the bottom cladding layer and in direct contact with the bottom cladding layer, wherein the bottom current spreading layer pillar is centrally located at and protrudes from the bottom cladding layer to confine current that flows into the active layer to an interior portion of the LED device and away from the sidewalls , and the bottom surface of the bottom cladding layer is wider than a maximum width of the bottom current spreading layer pillar , and the bottom current spreading layer pillar is doped with a first dopant type selected from the group consisting of n-type and p-type, and the top current spreading layer is doped with a second dopant type different from the first dopant type, wherein the second dopant type is selected from the group consisting of n-type and p-type; and the active layer of the LED device has a maximum width of 100 μm or less, and the bottom current spreading layer pillar has a maximum width of 10 μm or less.
Telescopic apron for an elevator car, comprising: a plurality of panels that are mounted in a telescopic arrangement by means of rails so that the panels are movable from a retracted configuration to an extended configuration and vice versa, each rail comprising two mutually slidable rail pieces that are fixed to adjacent panels by screws , characterized in that each rail comprises: a sliding block made of steel having a longitudinal extension and two longitudinal protrusions , each rail piece being made of cast polyamide and having a longitudinal groove in which one of the longitudinal protrusion of the sliding block is slidably inserted. a plurality of panels that are mounted in a telescopic arrangement by means of rails so that the panels are movable from a retracted configuration to an extended configuration and vice versa, each rail comprising two mutually slidable rail pieces that are fixed to adjacent panels by screws , characterized in that each rail comprises: a sliding block made of steel having a longitudinal extension and two longitudinal protrusions , each rail piece being made of cast polyamide and having a longitudinal groove in which one of the longitudinal protrusion of the sliding block is slidably inserted.
A process for producing a cellulosic composite pulp or a cellulosic composite absorbent product comprising the following steps: (a) oxidising a cellulose pulp with an oxidising agent to obtain 0.3 to 2.5 mmol carboxylic groups per gram cellulose pulp; and 0.1 to 5.0 mmol aldehyde groups per gram cellulose pulp, wherein the concentration of the oxidising agent is 0.5 to 50 mmol / g cellulose pulp (oven dried); and (b) homogenisation of the cellulose pulp of step (a) wherein the cellulose fibres are refined to provide a cellulose pulp comprising 1-50 % of fibres having a "Kajaani fibre length" of 0.7 mm - 2.1 mm; and 50-99 % of fibres having a "Malvern particle size" of 0.05 -500 micrometer (μm); (c) combining with lignocellulosic pulp. (a) oxidising a cellulose pulp with an oxidising agent to obtain 0.3 to 2.5 mmol carboxylic groups per gram cellulose pulp; and 0.1 to 5.0 mmol aldehyde groups per gram cellulose pulp, wherein the concentration of the oxidising agent is 0.5 to 50 mmol / g cellulose pulp (oven dried); and (b) homogenisation of the cellulose pulp of step (a) wherein the cellulose fibres are refined to provide a cellulose pulp comprising 1-50 % of fibres having a "Kajaani fibre length" of 0.7 mm - 2.1 mm; and 50-99 % of fibres having a "Malvern particle size" of 0.05 -500 micrometer (μm); (c) combining with lignocellulosic pulp.
Method of determining a handover position of a gripping device , - wherein the gripping device is assigned to a laboratory sample distribution system having a transport plane and a plurality of electro-magnetic actuators positioned below the transport plane , and - wherein the handover position is assigned to a handover electro-magnetic actuator ; the method comprising the steps: - grabbing, by means of the gripping device , a position determining device such that the position determining device is held fixedly by the gripping device , wherein the position determining device comprises a magnetically active device, - positioning the position determining device , while being held by the gripping device , on the transport plane , - activating the handover electro-magnetic actuator such that it generates a magnetic field interacting with a magnetic field generated by the magnetically active device such that an attractive force is applied on the position determining device , - moving the position determining device , while being held by the gripping device , by the attractive force to a first position , - detecting the first position , and - determining the handover position based at least in part on the first position . - wherein the gripping device is assigned to a laboratory sample distribution system having a transport plane and a plurality of electro-magnetic actuators positioned below the transport plane , and - wherein the handover position is assigned to a handover electro-magnetic actuator ; - grabbing, by means of the gripping device , a position determining device such that the position determining device is held fixedly by the gripping device , wherein the position determining device comprises a magnetically active device, - positioning the position determining device , while being held by the gripping device , on the transport plane , - activating the handover electro-magnetic actuator such that it generates a magnetic field interacting with a magnetic field generated by the magnetically active device such that an attractive force is applied on the position determining device , - moving the position determining device , while being held by the gripping device , by the attractive force to a first position , - detecting the first position , and - determining the handover position based at least in part on the first position .
One-piece bar for attaching a bracelet to a watch , the bar extending in a longitudinal direction (D1) and comprising two pivots and a body connecting the two pivots , each pivot being intended to be introduced into a corresponding housing of a respective horn of a watch case, the body comprising a plurality of elements connected to one another, each element having a hollowed portion , in order to give the bar longitudinal elasticity to allow elastic deformation thereof in the longitudinal direction (D1) characterized in that each element comprises a peripheral frame surrounding the hollowed portion , the peripheral frames of the elements being connected to one another and in that the peripheral frame of each element has substantially the shape of a closed 'M', the peripheral frames of the elements being connected to one another via longitudinal connecting members , each longitudinal connecting member connecting a portion of frame that closes the 'M' of one element to a portion of frame that forms the central acute angle of the 'M' of another element .
A computer-implemented method for editing a position of a selected design element in a constraint network of a product using a positioning task to define positions of design elements and positioning groups , wherein a positioning task splits a large collection of visible and loaded objects into smaller collections comprising a work collection and a context collection , and separates objects that are needed to perform the work from other objects that might be loaded in a computer aided design, CAD, session, and wherein a positioning group is a geometric constraint collection composed of a group of design elements and a set of positioning constraints that defines the positions of the designs elements , comprising: loading a geometric model and receiving a user selection of a selected design element for the purpose of modifying the position of the design element ; searching a database for a positioning group related to the selected design element , adding the selected design element and the positioning group related to the selected design element into a work collection of the positioning task , wherein the positioning groups and the design elements found in the work collection can be modified; searching the database a second time for referenced positioning groups and referenced design elements that are referenced by constraints of the positioning group and the design elements in the work collection ; adding the referenced positioning groups and the referenced design elements discovered by the second search into a context collection of the positioning task , wherein the referenced positioning groups and the referenced design elements found in the context collection cannot be modified; and loading the constraints for the positioning group and the design elements which are added to the work collection, and, modifying the position of the selected design element in the work collection . loading a geometric model and receiving a user selection of a selected design element for the purpose of modifying the position of the design element ; searching a database for a positioning group related to the selected design element , adding the selected design element and the positioning group related to the selected design element into a work collection of the positioning task , wherein the positioning groups and the design elements found in the work collection can be modified; searching the database a second time for referenced positioning groups and referenced design elements that are referenced by constraints of the positioning group and the design elements in the work collection ; adding the referenced positioning groups and the referenced design elements discovered by the second search into a context collection of the positioning task , wherein the referenced positioning groups and the referenced design elements found in the context collection cannot be modified; and loading the constraints for the positioning group and the design elements which are added to the work collection, and, modifying the position of the selected design element in the work collection .
A splitter module arranged for mounting in a pocket of a cover of an enclosure , the splitter module comprising: a housing defining an interior , the housing including a first major surface and a second major surface , the housing having a major axis (A1) extending along the major surfaces from a first end of the housing to a second end of the housing , the housing also having a minor axis (A2) extending along the major surfaces orthogonal to the major axis (A1), the housing being contoured about the minor axis (A2); a splitter disposed within the interior of the housing ; an input fiber coupled to a first end of the splitter , the input fiber extending out of the housing ; and a plurality of output pigtails coupled to a second end of the splitter , each output pigtail extending out of the housing ; characterized in that : the first major surface has a concave curvature and the second major surface has a convex curvature, wherein the convex curvature of the second surface of the splitter module is arranged for fitting against an interior side of a contoured surface of the cover and the concave curvature of the first surface of the splitter module is arranged for accommodating optical adapters . a housing defining an interior , the housing including a first major surface and a second major surface , the housing having a major axis (A1) extending along the major surfaces from a first end of the housing to a second end of the housing , the housing also having a minor axis (A2) extending along the major surfaces orthogonal to the major axis (A1), the housing being contoured about the minor axis (A2); a splitter disposed within the interior of the housing ; an input fiber coupled to a first end of the splitter , the input fiber extending out of the housing ; and a plurality of output pigtails coupled to a second end of the splitter , each output pigtail extending out of the housing ; characterized in that : the first major surface has a concave curvature and the second major surface has a convex curvature, wherein the convex curvature of the second surface of the splitter module is arranged for fitting against an interior side of a contoured surface of the cover and the concave curvature of the first surface of the splitter module is arranged for accommodating optical adapters . the first major surface has a concave curvature and the second major surface has a convex curvature, wherein the convex curvature of the second surface of the splitter module is arranged for fitting against an interior side of a contoured surface of the cover and the concave curvature of the first surface of the splitter module is arranged for accommodating optical adapters .
A communication system comprising a mobile terminal and a base station configured to communicate with the mobile terminal , in which multiplexing of channels for Multimedia Broadcast multicast service Single Frequency Network, MBSFN, and for non-MBSFN is performed, characterized in that the base station is configured to transmit, to the mobile terminal , a configuration of MBSFN subframes which include an MBSFN subframe designated by the base station itself and an MBSFN subframe indicated by a Multi-cell/multicast Coordination Entity, MCE, , and wherein the mobile terminal is configured to receive the configuration of MBSFN subframes transmitted from the base station . the base station is configured to transmit, to the mobile terminal , a configuration of MBSFN subframes which include an MBSFN subframe designated by the base station itself and an MBSFN subframe indicated by a Multi-cell/multicast Coordination Entity, MCE, , and wherein the mobile terminal is configured to receive the configuration of MBSFN subframes transmitted from the base station .
A method of fixing a tissue sample, wherein: (a) the tissue sample is immersed in a high-concentration aldehyde fixative solution having a formalin concentration of greater than 20% at a temperature within the range of about -20°C to about 15°C for a first time period from about 15 minutes up to about 4 hours; and (b) the tissue sample is immersed in a 5-10% formalin solution at a second temperature within the range of about 22°C to about 50°C for a second time period from greater than 15 minutes up to at least about 5 hours. (a) the tissue sample is immersed in a high-concentration aldehyde fixative solution having a formalin concentration of greater than 20% at a temperature within the range of about -20°C to about 15°C for a first time period from about 15 minutes up to about 4 hours; and (b) the tissue sample is immersed in a 5-10% formalin solution at a second temperature within the range of about 22°C to about 50°C for a second time period from greater than 15 minutes up to at least about 5 hours.
Battery arrangement having a retention module with identical recesses which are formed therein for receiving electrical battery cells , wherein a component of each battery cell is a cylindrical cell base member which is provided in the region of one end side thereof with a plus contact having a metallically bright outer face and in the region of the other end side thereof with a minus contact having a metallically bright outer face, and having means for cooling and/or heating the retention module , characterised in that the retention module is a homogeneous member through which a heat-transfer fluid can flow and which comprises heat-conductive material, such as, for example, aluminium, having a first outer side and a second outer side which is parallel therewith, in that the recesses extend in each case continuously and without changing the cross-section thereof between the outer sides and are open only at the outer sides , in that at least wall portions of the recesses are cylindrical, and in that each cell base member is surrounded over the periphery thereof and the majority of the length thereof by an individual heat-conducting cover , and is in planar abutment therewith against the cylindrical wall portions .
A sol-gel suitable for surface treatment of a substrate to provide a temperature resistant and erosion resistant coating comprising: an effective amount of a titanium alkoxide; an effective amount of an organosilane for forming a sol-gel network on a surface of the substrate: an organic acid; an effective amount of one or more additives to improve the impact resistance, heat resistance, or combination thereof of the resulting sol-gel coating, wherein the one or more additives comprises mica flakes having an average diameter from 2 to 20 micrometers (microns) and said mica flakes are present in an amount of from 2 to 10 volume percent, based on the total volume of the titanium alkoxide and the organosilane; and an effective amount of one or more pigments to control gloss, color, reflectivity or a combination thereof of the substrate when coated with the sol-gel to form a sol coating, and wherein the combined percent volume loading of the one or more additives and the one or more pigments is at least 20 percent, based on the total volume of the titanium alkoxide and organosilane. an effective amount of a titanium alkoxide; an effective amount of an organosilane for forming a sol-gel network on a surface of the substrate: an organic acid; an effective amount of one or more additives to improve the impact resistance, heat resistance, or combination thereof of the resulting sol-gel coating, wherein the one or more additives comprises mica flakes having an average diameter from 2 to 20 micrometers (microns) and said mica flakes are present in an amount of from 2 to 10 volume percent, based on the total volume of the titanium alkoxide and the organosilane; and an organic acid; an effective amount of one or more additives to improve the impact resistance, heat resistance, or combination thereof of the resulting sol-gel coating, wherein the one or more additives comprises mica flakes having an average diameter from 2 to 20 micrometers (microns) and said mica flakes are present in an amount of from 2 to 10 volume percent, based on the total volume of the titanium alkoxide and the organosilane; and an effective amount of one or more pigments to control gloss, color, reflectivity or a combination thereof of the substrate when coated with the sol-gel to form a sol coating, and wherein the combined percent volume loading of the one or more additives and the one or more pigments is at least 20 percent, based on the total volume of the titanium alkoxide and organosilane.