mhurhangee/patent-ind-claim-en huggingface dataset:
Plug-connector device with a line plug connector that forms a plug connection between a first and a second conductor portion , wherein the first and second conductor portions are hydraulic conductor portions, with a wind-protection casing comprising a plastic shell , - which has a first part-shell and a second part-shell , the first part-shell and the second part-shell enclosing a receiving space and - forming a first and a second line opening , which connect the receiving space to the surrounding region (U) outside the receiving space , - wherein the first conductor portion being led through the first line opening and the second conductor portion being led through the second line opening out of the receiving space into the surrounding region (U), - and with a holding means with a receiving geometry for a line plug connector , - which is arranged on the first part-shell and - is formed in such a way that a line plug connector received by the receiving geometry is held in the receiving space at a distance from the first part-shell and the second part-shell by an air gap - wherein the line plug connector is received in the receiving geometry . - which has a first part-shell and a second part-shell , the first part-shell and the second part-shell enclosing a receiving space and - forming a first and a second line opening , which connect the receiving space to the surrounding region (U) outside the receiving space , - wherein the first conductor portion being led through the first line opening and the second conductor portion being led through the second line opening out of the receiving space into the surrounding region (U), - and with a holding means with a receiving geometry for a line plug connector , - which is arranged on the first part-shell and - is formed in such a way that a line plug connector received by the receiving geometry is held in the receiving space at a distance from the first part-shell and the second part-shell by an air gap - wherein the line plug connector is received in the receiving geometry .
Node for a cellular network with a linear cell topology for wirelessly communicating with user terminals, wherein the network with the linear cell topology has nodes that are arranged in a chain-like manner and have coverage areas (10 1 , 10 2 ) that substantially adjoin or overlap so that a user terminal can move from one node to the next without interrupting communication, wherein the node has a single support and is configured to communicate data in at least a first and a second channel resource of channel resources (CRi) of a communication channel (CH), which are separated in at least one of frequency (f) and time (t), and wherein the node is further configured to employ different power levels (P 1 , P 2 ) for different channel resources of the channel resources (CRi)of the communication channel, wherein the node comprises a first and a second directional antenna mounted on the single support , each directed in a different direction (d L , d R ) and each covering one side of the node , wherein the node is configured to act as a single cell of the cellular network by broadcasting a same cell-ID over both antennas , and wherein the node is further configured to independently communicate different data over the first and the second antenna in a same channel resource of the channel resources (CRi)of the communication channel. .
Apparatus comprising: a blood pump comprising: an impeller comprising proximal and distal bushings , and configured to pump blood through the subject's body; a frame configured to be disposed around the impeller , the frame comprising a proximal bearing disposed proximally with respect to the impeller , and a distal bearing disposed distally with respect to the impeller ; an axial shaft configured to pass through the proximal and distal bearings of the frame and the proximal and distal bushings of the impeller , the axial shaft : being coupled to at least one of the proximal and distal bushings of the impeller , such that the at least one bushing is held in an axially-fixed position with respect to the axial shaft , and not being held in an axially-fixed position with respect to the proximal and distal bearings , characterized in that the blood pump comprises: a sensor configured to detect an indication of axial motion of the impeller , and to generate a sensor signal in response thereto; and a computer processor configured to receive the sensor signal and to generate an output in response thereto. an impeller comprising proximal and distal bushings , and configured to pump blood through the subject's body; a frame configured to be disposed around the impeller , the frame comprising a proximal bearing disposed proximally with respect to the impeller , and a distal bearing disposed distally with respect to the impeller ; an axial shaft configured to pass through the proximal and distal bearings of the frame and the proximal and distal bushings of the impeller , the axial shaft : being coupled to at least one of the proximal and distal bushings of the impeller , such that the at least one bushing is held in an axially-fixed position with respect to the axial shaft , and not being held in an axially-fixed position with respect to the proximal and distal bearings , being coupled to at least one of the proximal and distal bushings of the impeller , such that the at least one bushing is held in an axially-fixed position with respect to the axial shaft , and not being held in an axially-fixed position with respect to the proximal and distal bearings , characterized in that the blood pump comprises: a sensor configured to detect an indication of axial motion of the impeller , and to generate a sensor signal in response thereto; and a computer processor configured to receive the sensor signal and to generate an output in response thereto. a sensor configured to detect an indication of axial motion of the impeller , and to generate a sensor signal in response thereto; and a computer processor configured to receive the sensor signal and to generate an output in response thereto.
A rotary position sensor assembly comprising: a rotatable ring magnet including at least a first pair of North and South Pole sections (130-136), each of the North and South Pole sections (130-136) having a circumferential length; and a switch spaced from the ring magnet and adapted for sensing changes in the magnetic field generated by the ring magnet in response to the rotation of the ring magnet relative to the switch , the length of the respective North and South Pole sections (130-136) of the ring magnet being predetermined to correspond to the one or more positions of the ring magnet adapted for sensing by the switch , characterized in that the rotary position sensor assembly is adapted for sensing the position of a rotatable output shaft on an actuator and comprises the output shaft , wherein the output shaft includes an end face defining a ring shaped cavity , the ring magnet being mounted in the ring shaped cavity , and wherein the ring magnet has a plurality of tongues or fingers that extend, respectively, into a plurality of grooves defined in said end face of the output shaft for indexing the ring magnet on the output shaft. a rotatable ring magnet including at least a first pair of North and South Pole sections (130-136), each of the North and South Pole sections (130-136) having a circumferential length; and a switch spaced from the ring magnet and adapted for sensing changes in the magnetic field generated by the ring magnet in response to the rotation of the ring magnet relative to the switch , the length of the respective North and South Pole sections (130-136) of the ring magnet being predetermined to correspond to the one or more positions of the ring magnet adapted for sensing by the switch ,
Method for producing patterns which are conductors or semi-conductors of electricity on a textured surface of a photovoltaic cell, the texturizing of the textured surface having a plurality of reliefs of which the amplitude is greater than or equal to 100 nanometres, the method comprising the following steps: - a step of preparing a substrate during which the whole of said textured surface of the substrate is made electrically conductive; - a layering step during which at least one layer of a printable material is arranged on said textured surface made electrically conductive; - a step of pressing a mould comprising cavities or protrusions so as to transfer the cavities or the protrusions of the mould into the printable material to form patterns there; - a step of removing the mould leaving the patterns to appear in the printable material ; - a step of stripping , at the bottom of the patterns, said textured surface; - a step of electrodepositing at least one material which is a conductor or semiconductor of electricity in the patterns to form conductive or semi-conductive patterns from said textured surface of the substrate made electrically conductive. - a step of preparing a substrate during which the whole of said textured surface of the substrate is made electrically conductive; - a layering step during which at least one layer of a printable material is arranged on said textured surface made electrically conductive; - a step of pressing a mould comprising cavities or protrusions so as to transfer the cavities or the protrusions of the mould into the printable material to form patterns there; - a step of removing the mould leaving the patterns to appear in the printable material ; - a step of stripping , at the bottom of the patterns, said textured surface; - a step of electrodepositing at least one material which is a conductor or semiconductor of electricity in the patterns to form conductive or semi-conductive patterns from said textured surface of the substrate made electrically conductive.
A light-emitting cooling fan, comprising: a base ; a bracket arranged above the base ; an impeller located in between the base and the bracket , rotatably mounted on the base , and having a hub and a plurality of fan blades arranged around the hub ; a light source disposed on the bracket and pointing downward to the hub of the impeller ; a reflector disposed on the hub of the impeller and underneath the light source , and configured for reflecting light from the light source in a radial direction of the hub; and a light guiding member , disposed on the hub and underneath the light source , and configured for receiving the light from the reflector and leading the light to travel along the radial direction of the hub to outside of the hub and then hit one of the fan blades of the impeller . a base ; a bracket arranged above the base ; an impeller located in between the base and the bracket , rotatably mounted on the base , and having a hub and a plurality of fan blades arranged around the hub ; a light source disposed on the bracket and pointing downward to the hub of the impeller ; a reflector disposed on the hub of the impeller and underneath the light source , and configured for reflecting light from the light source in a radial direction of the hub; and a light guiding member , disposed on the hub and underneath the light source , and configured for receiving the light from the reflector and leading the light to travel along the radial direction of the hub to outside of the hub and then hit one of the fan blades of the impeller .
A panel assembly comprising: a ceramic matrix composite or ceramic body , the body having a compartment , the compartment having a first portion and a second portion , the second portion outboard of and narrower than the first portion ; and a fastener (50;50-1), characterised in that the fastener (50; 50-1) has a hollow expanded portion (70;70-1) within the compartment first portion , wherein the expanded portion (70; 70-1) has been deformed in situ within the first portion of the compartment , wherein the expanded portion (70; 70-1) is too large to pass through the second portion of the compartment , wherein the second portion is a drilled straight blind bore having an axis and the first portion has been machined by a bit having a narrow shaft and a protuberant cutting or grinding portion . a ceramic matrix composite or ceramic body , the body having a compartment , the compartment having a first portion and a second portion , the second portion outboard of and narrower than the first portion ; and a fastener (50;50-1), characterised in that the fastener (50; 50-1) has a hollow expanded portion (70;70-1) within the compartment first portion , wherein the expanded portion (70; 70-1) has been deformed in situ within the first portion of the compartment , wherein the expanded portion (70; 70-1) is too large to pass through the second portion of the compartment , wherein the second portion is a drilled straight blind bore having an axis and the first portion has been machined by a bit having a narrow shaft and a protuberant cutting or grinding portion .
Laboratory sample distribution system , the laboratory sample distribution system comprising: - a number of sample container carriers , said sample container carriers each comprising at least one magnetically active device and being adapted to carry a sample container , - a transport plane being adapted to support said sample container carriers , - a number of electro-magnetic actuators being stationary arranged below said transport plane , said electro-magnetic actuators being adapted to move a corresponding sample container carrier located on top of said transport plane by applying a magnetic force to said sample container carrier , - a touch panel arranged below the transport plane being adapted to generate position signals (PS) depending on positions of the sample container carriers located on top of the transport plane , - a position determination unit , wherein the position determination unit is adapted to determine the positions of the sample container carriers located on top of the transport plane in response to the position signals (PS), and - a control unit being adapted to control the operation of the laboratory sample distribution system in response to the determined positions of the sample container carriers , - wherein the touch panel is a multi-touch capacitive touch panel, and/or - wherein the touch panel is a passive panel being based on electromagnetic induction. - a number of sample container carriers , said sample container carriers each comprising at least one magnetically active device and being adapted to carry a sample container , - a transport plane being adapted to support said sample container carriers , - a number of electro-magnetic actuators being stationary arranged below said transport plane , said electro-magnetic actuators being adapted to move a corresponding sample container carrier located on top of said transport plane by applying a magnetic force to said sample container carrier , - a touch panel arranged below the transport plane being adapted to generate position signals (PS) depending on positions of the sample container carriers located on top of the transport plane , - a position determination unit , wherein the position determination unit is adapted to determine the positions of the sample container carriers located on top of the transport plane in response to the position signals (PS), and - a control unit being adapted to control the operation of the laboratory sample distribution system in response to the determined positions of the sample container carriers , - wherein the touch panel is a multi-touch capacitive touch panel, and/or - wherein the touch panel is a passive panel being based on electromagnetic induction.
An appliance, comprising: a cyclical mechanical strain component configured to cause induction of mechanical strain within a portion of skin sufficient to modulate one or more cutaneous proteins; wherein the cyclical mechanical strain component is configured to apply a mechanical strain to a portion of skin for a duration sufficient to affect upregulation of one or more cutaneous proteins in the portion of skin; wherein applying the mechanical strain to a portion of skin includes applying a cyclical mechanical strain having a peak cyclic or oscillation frequency ranging from about 50 hertz to about 100 hertz for a duration sufficient to affect upregulation of one or more cutaneous proteins in the portion of skin; wherein the cyclical mechanical strain component includes circuitry operably coupled to an end effector configured to cause induction of mechanical strain within a portion of skin, characterized in that the end effector includes a plurality of contact points each located at a target distance from each other that is based on an inverse of a target stimulation frequency at which the end effector is configured to contact the portion of skin, wherein the contact points are located at a target distance from each other that is a whole integer increment of the inverse of the stimulation frequency, using the speed of sound in skin, and wherein the appliance is configured to move the end effector in a motion selected from the group consisting of oscillation, vibration, reciprocation, rotation, cyclical, and combinations thereof. a cyclical mechanical strain component configured to cause induction of mechanical strain within a portion of skin sufficient to modulate one or more cutaneous proteins; wherein the cyclical mechanical strain component is configured to apply a mechanical strain to a portion of skin for a duration sufficient to affect upregulation of one or more cutaneous proteins in the portion of skin; wherein applying the mechanical strain to a portion of skin includes applying a cyclical mechanical strain having a peak cyclic or oscillation frequency ranging from about 50 hertz to about 100 hertz for a duration sufficient to affect upregulation of one or more cutaneous proteins in the portion of skin; wherein the cyclical mechanical strain component includes circuitry operably coupled to an end effector configured to cause induction of mechanical strain within a portion of skin, characterized in that the end effector includes a plurality of contact points each located at a target distance from each other that is based on an inverse of a target stimulation frequency at which the end effector is configured to contact the portion of skin, wherein the contact points are located at a target distance from each other that is a whole integer increment of the inverse of the stimulation frequency, using the speed of sound in skin, and wherein the appliance is configured to move the end effector in a motion selected from the group consisting of oscillation, vibration, reciprocation, rotation, cyclical, and combinations thereof.
A pharmaceutical package comprising: a glass container comprising a first surface and a second surface opposite the first surface, wherein the first surface is an outer surface of the glass container; and a coating positioned over at least a portion of the first surface of the glass container, the coating comprising: one or more polyimide compositions; and one or more metal oxides, wherein the one or more metal oxides are selected from the group consisting of: titania, wherein the titania is from 33.85 wt.% to 91.5 wt.% of the coating; zirconia, wherein the zirconia is from 22 wt.% to 71.8 wt.% of the coating; and alumina, wherein the alumina is from 35.8 wt.% to 94.8 wt.% of the coating, wherein the one or more polyimide compositions and the one or more metal oxide compositions are mixed in the coating. a glass container comprising a first surface and a second surface opposite the first surface, wherein the first surface is an outer surface of the glass container; and a coating positioned over at least a portion of the first surface of the glass container, the coating comprising: one or more polyimide compositions; and one or more metal oxides, wherein the one or more metal oxides are selected from the group consisting of: titania, wherein the titania is from 33.85 wt.% to 91.5 wt.% of the coating; zirconia, wherein the zirconia is from 22 wt.% to 71.8 wt.% of the coating; and alumina, wherein the alumina is from 35.8 wt.% to 94.8 wt.% of the coating, wherein the one or more polyimide compositions and the one or more metal oxide compositions are mixed in the coating. one or more polyimide compositions; and one or more metal oxides, wherein the one or more metal oxides are selected from the group consisting of: titania, wherein the titania is from 33.85 wt.% to 91.5 wt.% of the coating; zirconia, wherein the zirconia is from 22 wt.% to 71.8 wt.% of the coating; and alumina, wherein the alumina is from 35.8 wt.% to 94.8 wt.% of the coating, titania, wherein the titania is from 33.85 wt.% to 91.5 wt.% of the coating; zirconia, wherein the zirconia is from 22 wt.% to 71.8 wt.% of the coating; and wherein the one or more polyimide compositions and the one or more metal oxide compositions are mixed in the coating.
A process for producing mesophase pitch from high-temperature coal tar, comprising: removing salts and quinoline insoluble fraction from a high-temperature coal tar to obtain a decant oil; obtaining a hydrogenation feedstock from the decant oil by pre-distilling the decant oil to obtain a residue with a boiling point higher than 230°C, and mixing the residue with formulated oil to obtain the hydrogenation feedstock, wherein the formulated oil comprises one or more components selected from the group consisting of distillation fractions of coal tar and the hydrogenated product of the distillation fractions of coal tar; and then catalytic hydrorefining the hydrogenation feedstock to obtain a hydrofined oil; distilling the hydrofined oil to obtain hydrogenated pitch and a hydrogenated high boiling point solvent with a boiling spread of 300-360°C and a hydrogenated distillation fraction with a boiling spread of 80-300°C; subjecting the hydrogenated pitch to thermal polymerization to obtain the mesophase pitch, wherein a part of the hydrogenated high boiling point solvent obtained from the step is used in at least one of the following steps: as solvent in addition to deionized water in the step of removing salts in the step ; as solvent in addition to an aliphatic solvent in the step of removing the quinoline insoluble fraction in the step ; as component for said formulated oil in the preparation of the hydrogenation feedstock in the step . removing salts and quinoline insoluble fraction from a high-temperature coal tar to obtain a decant oil; obtaining a hydrogenation feedstock from the decant oil by pre-distilling the decant oil to obtain a residue with a boiling point higher than 230°C, and mixing the residue with formulated oil to obtain the hydrogenation feedstock, wherein the formulated oil comprises one or more components selected from the group consisting of distillation fractions of coal tar and the hydrogenated product of the distillation fractions of coal tar; and then catalytic hydrorefining the hydrogenation feedstock to obtain a hydrofined oil; distilling the hydrofined oil to obtain hydrogenated pitch and a hydrogenated high boiling point solvent with a boiling spread of 300-360°C and a hydrogenated distillation fraction with a boiling spread of 80-300°C; subjecting the hydrogenated pitch to thermal polymerization to obtain the mesophase pitch, wherein a part of the hydrogenated high boiling point solvent obtained from the step is used in at least one of the following steps: as solvent in addition to deionized water in the step of removing salts in the step ; as solvent in addition to an aliphatic solvent in the step of removing the quinoline insoluble fraction in the step ; as component for said formulated oil in the preparation of the hydrogenation feedstock in the step .