mhurhangee/patent-ind-claim-en huggingface dataset:
A track lamp comprising an adapter , a swivel arm and a lamp body , wherein the swivel arm comprises a first rotating shaft connected with the adapter in a tight fit mode, and the first rotating shaft is divided into a first rotating half shaft and a second rotating half shaft along a direction of a first rotating center line ; wherein the swivel arm further comprises a second rotating shaft tightly fitted to the lamp body , wherein the second rotating shaft comprises an inner shaft and an outer shaft sleeved on the inner shaft , the swivel arm is split into two halves and comprises an inner half-arm disposed close to the lamp body and an outer half-arm remote from the lamp body , the first rotating half shaft and the outer shaft are integrally formed with the inner half arm , and the second rotating half shaft and the inner shaft are formed integrally with the outer half arm . the swivel arm comprises a first rotating shaft connected with the adapter in a tight fit mode, and the first rotating shaft is divided into a first rotating half shaft and a second rotating half shaft along a direction of a first rotating center line ; wherein the swivel arm further comprises a second rotating shaft tightly fitted to the lamp body , wherein the second rotating shaft comprises an inner shaft and an outer shaft sleeved on the inner shaft , the swivel arm is split into two halves and comprises an inner half-arm disposed close to the lamp body and an outer half-arm remote from the lamp body , the first rotating half shaft and the outer shaft are integrally formed with the inner half arm , and the second rotating half shaft and the inner shaft are formed integrally with the outer half arm .
A lighting module comprising: a substrate , an array of light emitting diodes mounted on the substrate , the array of light emitting diodes having a pitch and defining a plane, an optical structure encompassing the array of light emitting diodes for approximating in operation the array of light emitting diodes as a single light source, the optical structure having a first surface oriented towards the array of light emitting diodes and a second surface facing away from the array of light emitting diodes , characterized in that the optical structure comprises a plurality of optical elements on at least one of the first surface and the second surface , wherein each optical element is arranged to scatter or refract incident light over a deviation angle α, thereby providing, when observing a light emitting diode through the optical structure with the lighting module in operation, a luminous intensity profile I as a function of the deviation angle α, the deviation angle α being limited to a maximum deviation angle α max provided by each optical element in dependence on its position on the optical structure , wherein the luminous intensity profile I is substantially constant between -α max and α max , so that each optical element is arranged to create a virtual light source that provides an illumination in the plane of the array of light emitting diodes , the illumination being substantially constant over a predetermined distance, and wherein the predetermined distance corresponds to the pitch of the array of light emitting diodes . a substrate , an array of light emitting diodes mounted on the substrate , the array of light emitting diodes having a pitch and defining a plane, an optical structure encompassing the array of light emitting diodes for approximating in operation the array of light emitting diodes as a single light source, the optical structure having a first surface oriented towards the array of light emitting diodes and a second surface facing away from the array of light emitting diodes , characterized in that the optical structure comprises a plurality of optical elements on at least one of the first surface and the second surface , wherein each optical element is arranged to scatter or refract incident light over a deviation angle α, thereby providing, when observing a light emitting diode through the optical structure with the lighting module in operation, a luminous intensity profile I as a function of the deviation angle α, the deviation angle α being limited to a maximum deviation angle α max provided by each optical element in dependence on its position on the optical structure , wherein the luminous intensity profile I is substantially constant between -α max and α max , so that each optical element is arranged to create a virtual light source that provides an illumination in the plane of the array of light emitting diodes , the illumination being substantially constant over a predetermined distance, and wherein the predetermined distance corresponds to the pitch of the array of light emitting diodes .
An information processing program that causes a computer to execute a process comprising: acquiring an image of an object storing items that is captured (S101); extracting an object region of the object contained in the image by analyzing the image acquired (S102); extracting one or more item regions contained in the extracted object region by analyzing the image acquired (S103); estimating an item volume of the items stored in the object based on positions of outlines of the item region, where the top side of the outlines defines an item region and the bottom side of the object region defines a no-item region obscured by the object storing items (S105); and specifying a number of items stored in the object by inputting the specified item volume to a trained machine learning model (S106). acquiring an image of an object storing items that is captured (S101); extracting an object region of the object contained in the image by analyzing the image acquired (S102); extracting one or more item regions contained in the extracted object region by analyzing the image acquired (S103); estimating an item volume of the items stored in the object based on positions of outlines of the item region, where the top side of the outlines defines an item region and the bottom side of the object region defines a no-item region obscured by the object storing items (S105); and specifying a number of items stored in the object by inputting the specified item volume to a trained machine learning model (S106).
Heated bowl for an electrical household system comprising a vessel , means to heat the vessel , a power cord intended to be connected to an electrical power source to autonomously power the heating means , said heated bowl being characterised in that it comprises means to detect the coupling of the heated bowl to the electrical household system that features: - a first operating state (E1) defined when the heated bowl is in a position (P1) whereby it is uncoupled from the electrical household system , - and a second operating state (E2), different from the first operating state (E1), and defined when the heated bowl is in a position (P2) whereby it is coupled to the electrical household system , the heated bowl being arranged to operate according to a first operating mode (F1) of the heating means when the detection means is in its first operating state (E1), and to operate according to a second operating mode (F2) of the heating means , different from the first operating mode (F1), when the detection means is in its second operating state (F2). - a first operating state (E1) defined when the heated bowl is in a position (P1) whereby it is uncoupled from the electrical household system , - and a second operating state (E2), different from the first operating state (E1), and defined when the heated bowl is in a position (P2) whereby it is coupled to the electrical household system ,
A medical fluid delivery system comprising: a medical fluid delivery machine configured to perform dialysis treatment on a patient and a treatment preparation step, wherein the medical fluid delivery machine is further configured to determine a treatment preparation step is needed to be performed before a dialysis treatment can begin, generate a message indicating that the medical fluid delivery machine is ready to perform the treatment preparation step, and after receiving a notification in response to the message, perform the treatment preparation step; and at least one server in data communication with the medical fluid delivery machine via a first link to receive the message, the at least one server configured to (i) relay the message from the medical fluid delivery machine to a remote mobile communication device via a second link , (ii) receive a response from the remote mobile communication device indicating to start the treatment preparation step via the second link, and (iii) send the notification to the medical fluid delivery machine to start the treatment preparation step via the first link, wherein the treatment preparation step includes at least one of a start-up procedure task, a disinfection procedure, or an automated self-test routine, and wherein the treatment preparation step is configured to be performed before the dialysis treatment is performed on a patient. a medical fluid delivery machine configured to perform dialysis treatment on a patient and a treatment preparation step, wherein the medical fluid delivery machine is further configured to determine a treatment preparation step is needed to be performed before a dialysis treatment can begin, generate a message indicating that the medical fluid delivery machine is ready to perform the treatment preparation step, and after receiving a notification in response to the message, perform the treatment preparation step; and at least one server in data communication with the medical fluid delivery machine via a first link to receive the message, the at least one server configured to (i) relay the message from the medical fluid delivery machine to a remote mobile communication device via a second link , (ii) receive a response from the remote mobile communication device indicating to start the treatment preparation step via the second link, and (iii) send the notification to the medical fluid delivery machine to start the treatment preparation step via the first link, wherein the treatment preparation step includes at least one of a start-up procedure task, a disinfection procedure, or an automated self-test routine, and wherein the treatment preparation step is configured to be performed before the dialysis treatment is performed on a patient.
An imaging element comprising a photoelectric conversion unit formed by laminating a first electrode , a photoelectric conversion layer , and a second electrode , wherein between the first electrode and the photoelectric conversion layer , a first semiconductor material layer (23B 1 ) and a second material layer (23B 2 ) are formed from the first electrode side, and the second material layer (23B 2 ) is in contact with the photoelectric conversion layer , the photoelectric conversion unit further includes an insulating layer and a charge accumulation electrode disposed apart from the first electrode so as to face the first semiconductor material layer (23B 1 ) via the insulating layer , and when an electron mobility of the first semiconductor material layer (23B 1 ) is represented by μ 1 , and an electron mobility of the second material layer (23B 2 ) is represented by μ 2 , μ 2 < μ 1 is satisfied, characterized in that the second material layer (23B 2 ) is a second semiconductor material layer, which is in electrical contact with the photoelectric conversion layer . between the first electrode and the photoelectric conversion layer , a first semiconductor material layer (23B 1 ) and a second material layer (23B 2 ) are formed from the first electrode side, and the second material layer (23B 2 ) is in contact with the photoelectric conversion layer , the photoelectric conversion unit further includes an insulating layer and a charge accumulation electrode disposed apart from the first electrode so as to face the first semiconductor material layer (23B 1 ) via the insulating layer , and when an electron mobility of the first semiconductor material layer (23B 1 ) is represented by μ 1 , and an electron mobility of the second material layer (23B 2 ) is represented by μ 2 , μ 2 < μ 1 is satisfied, characterized in that the second material layer (23B 2 ) is a second semiconductor material layer, which is in electrical contact with the photoelectric conversion layer .
Use of -paradol for stabilizing the taste and/or odour of mono- or polyunsaturated C 8 -C 22 fatty acids or its monohydric or polyhydric C 1 -C 18 aliphatic alcohols ester.
Method for controlling the lighting of a plurality of lighting devices which are electrically connected, wherein each lighting device is configured for responding to control messages comprising an identification code of the lighting device, said lighting devices are arranged in such a way to form a row or a strip of lighting devices , said method comprising the steps of: - arranging the lighting devices in an environment, - activating each lighting device of the plurality according to a corresponding lighting sequence the method being characterised by the following steps: - during the lighting sequence of the lighting devices acquiring a plurality of images of the environment and the lighting devices, wherein each lighting device is adapted to emit light of different colors and, during the acquisition of the plurality of images, each device being controlled to generate a specific color sequence, which specific color sequence being associated to the identification code of the lighting device implementing it, - automatically analyzing the plurality of images to determine a spatial position and an identification code of each lighting device; - once the spatial position and the identification code of each device are determined, selecting a lighting program and sending control messages to control the lighting devices according to a sequence that considers the determined spatial position. - arranging the lighting devices in an environment, - activating each lighting device of the plurality according to a corresponding lighting sequence the method being characterised by the following steps: - during the lighting sequence of the lighting devices acquiring a plurality of images of the environment and the lighting devices, wherein each lighting device is adapted to emit light of different colors and, during the acquisition of the plurality of images, each device being controlled to generate a specific color sequence, which specific color sequence being associated to the identification code of the lighting device implementing it, - automatically analyzing the plurality of images to determine a spatial position and an identification code of each lighting device; - once the spatial position and the identification code of each device are determined, selecting a lighting program and sending control messages to control the lighting devices according to a sequence that considers the determined spatial position.
A breathable adhesive bandage , comprising: a fabric layer substantially formed from wool with wool fibres, wherein the wool fibres are woven or non-woven and comprise a fibre thickness in a range of 13 to 25 microns; wherein the fabric layer comprises a weight in a range of 33.9 to 508.6 g/m 2 and includes a first surface oppositely disposed from a second surface, wherein the first surface is a brushed outer surface that is formed by brushing or distressing the first surface after formation of the fabric layer to provide extra thickness and padding or cushioning to the fabric layer ; an adhesive layer applied to the second surface of the fabric layer in a discontinuous pattern such that, the adhesive layer is configured to cover 40% to 70% of the second surface of the fabric layer ; a pad attached to the second surface of the fabric layer or to the adhesive layer ; a removable backing covering the pad and removably attached to the adhesive layer . a fabric layer substantially formed from wool with wool fibres, wherein the wool fibres are woven or non-woven and comprise a fibre thickness in a range of 13 to 25 microns; wherein the fabric layer comprises a weight in a range of 33.9 to 508.6 g/m 2 and includes a first surface oppositely disposed from a second surface, wherein the first surface is a brushed outer surface that is formed by brushing or distressing the first surface after formation of the fabric layer to provide extra thickness and padding or cushioning to the fabric layer ; wherein the fabric layer comprises a weight in a range of 33.9 to 508.6 g/m 2 and includes a first surface oppositely disposed from a second surface, wherein the first surface is a brushed outer surface that is formed by brushing or distressing the first surface after formation of the fabric layer to provide extra thickness and padding or cushioning to the fabric layer ; an adhesive layer applied to the second surface of the fabric layer in a discontinuous pattern such that, the adhesive layer is configured to cover 40% to 70% of the second surface of the fabric layer ; a pad attached to the second surface of the fabric layer or to the adhesive layer ; a removable backing covering the pad and removably attached to the adhesive layer .
A vacuum cleaner comprising: a suction nozzle housing; an agitator provided within the suction nozzle housing; and a suction channel guiding air sucked into the suction nozzle housing to a dust collector, wherein the agitator includes: a body rotatably installed in the suction nozzle housing; brush members disposed on the body in parallel with the center axis of rotation of the body and combined with the body so as to be fixed thereto; and auxiliary members disposed on the body in parallel with the center axis of rotation of the body and loosely combined with the body so as to be pivotable in circumferential direction of the body when the body is rotated, wherein a protrusion having a blunt end is provided in the suction channel , the protrusion being arranged to overlap with parts of the brush members and to contact the brush members when the body is rotated, characterized in that a recess is formed at a position of each of the auxiliary members corresponding to the protrusion . a suction nozzle housing; an agitator provided within the suction nozzle housing; and a suction channel guiding air sucked into the suction nozzle housing to a dust collector, wherein the agitator includes: a body rotatably installed in the suction nozzle housing; brush members disposed on the body in parallel with the center axis of rotation of the body and combined with the body so as to be fixed thereto; and auxiliary members disposed on the body in parallel with the center axis of rotation of the body and loosely combined with the body so as to be pivotable in circumferential direction of the body when the body is rotated, wherein a protrusion having a blunt end is provided in the suction channel , the protrusion being arranged to overlap with parts of the brush members and to contact the brush members when the body is rotated, characterized in that a recess is formed at a position of each of the auxiliary members corresponding to the protrusion . a body rotatably installed in the suction nozzle housing; brush members disposed on the body in parallel with the center axis of rotation of the body and combined with the body so as to be fixed thereto; and auxiliary members disposed on the body in parallel with the center axis of rotation of the body and loosely combined with the body so as to be pivotable in circumferential direction of the body when the body is rotated, wherein a protrusion having a blunt end is provided in the suction channel , the protrusion being arranged to overlap with parts of the brush members and to contact the brush members when the body is rotated, characterized in that a recess is formed at a position of each of the auxiliary members corresponding to the protrusion .
An ink composition for photonic sintering, comprising: a first metal nanoparticle including a first metal, the first metal nanoparticle being capped with a first capping layer including an organic acid, the first capping layer substantially completely preventing the first metal from formation of a surface oxide film; a low melting point metal particle capped with a third capping layer including an organic acid substantially completely preventing formation of a surface oxide film, the low melting point metal having a melting point of 800°C or lower; a non-aqueous organic binder; and a non-aqueous solvent, wherein the first metal is copper, silver, gold, nickel, tin, aluminum, or an alloy thereof. a first metal nanoparticle including a first metal, the first metal nanoparticle being capped with a first capping layer including an organic acid, the first capping layer substantially completely preventing the first metal from formation of a surface oxide film; a low melting point metal particle capped with a third capping layer including an organic acid substantially completely preventing formation of a surface oxide film, the low melting point metal having a melting point of 800°C or lower; a non-aqueous organic binder; and a non-aqueous solvent, wherein the first metal is copper, silver, gold, nickel, tin, aluminum, or an alloy thereof.
A method of determining a kisspoint of a clutch in a driveline of a vehicle comprising: a. increasing a target clutch pressure of a clutch piston up to a first predetermined test target pressure ; b. increasing the target clutch pressure up to an upper target pressure and subsequently keeping the target clutch pressure stable for a predetermined time interval; c. monitoring a parameter indicative for the filling of the clutch piston during the predetermined time interval; d. repeating steps a., b., and c. for at least one further predetermined test target pressure ; and e. determining the kisspoint based on the monitored parameter indicative for the filling of the clutch piston ; characterized in that the parameter indicative for the filling of the clutch piston is a rotational speed of an electric motor driving a pump providing fluid to the clutch piston . a. increasing a target clutch pressure of a clutch piston up to a first predetermined test target pressure ; b. increasing the target clutch pressure up to an upper target pressure and subsequently keeping the target clutch pressure stable for a predetermined time interval; c. monitoring a parameter indicative for the filling of the clutch piston during the predetermined time interval; d. repeating steps a., b., and c. for at least one further predetermined test target pressure ; and e. determining the kisspoint based on the monitored parameter indicative for the filling of the clutch piston ;
A flow cell , comprising: - a body that defines a cavity , - an inlet pipe for the inflow of a fluid to the cavity , - an outlet pipe for the outflow of the fluid from the cavity , and - an X-ray transparent window for allowing the fluid in the cavity to be irradiated with X-ray radiation, characterised in that the inner surface of the inlet pipe comprises a grooving for imparting rotational flow to the inflowing fluid, and that the inlet pipe is arranged to direct the inflowing fluid towards the X-ray transparent window or into the cavity in such a manner that the fluid flows essentially along the wall of the cavity . - a body that defines a cavity , - an inlet pipe for the inflow of a fluid to the cavity , - an outlet pipe for the outflow of the fluid from the cavity , and - an X-ray transparent window for allowing the fluid in the cavity to be irradiated with X-ray radiation,