mhurhangee/ep-ind-claims huggingface dataset:
An electronic element and cooling system comprising: an electric element which will generate heat in use; a cooling channel placed in contact with at least one surface on said electric element, and said cooling channel having a portion receiving an enhanced heat transfer surface; and at least one electrode pair mounted on an inlet channel upstream of said portion of said cooling channel receiving said enhanced heat transfer surface, and a source of current for said electrode, said electrode for inducing an electric field in said inlet channel to drive a fluid across said enhanced heat transfer surface due to electrohydrodynamic conduction pumping; characterised in that: said enhanced transfer heat surface include nanofibers, an average diameter of said nanofibers being between 10 to 1000 nanometers, wherein said nanofibers are part of a nanomat. an electric element which will generate heat in use; a cooling channel placed in contact with at least one surface on said electric element, and said cooling channel having a portion receiving an enhanced heat transfer surface; and at least one electrode pair mounted on an inlet channel upstream of said portion of said cooling channel receiving said enhanced heat transfer surface, and a source of current for said electrode, said electrode for inducing an electric field in said inlet channel to drive a fluid across said enhanced heat transfer surface due to electrohydrodynamic conduction pumping; characterised in that: said enhanced transfer heat surface include nanofibers, an average diameter of said nanofibers being between 10 to 1000 nanometers, wherein said nanofibers are part of a nanomat.
A sensor mounting assembly configured for use with a vessel arrangement including at least first, second, third and fourth vessels, the sensor mounting assembly including: a first elongated frame member; a first roller attached to the first elongated frame member, the first roller configured to contact and roll upon a first surface of one of the first, second, third and fourth vessels; a first sensor attached to the first elongated frame member and configured to contact a surface of the first vessel upon actuation in a first direction; a second elongated frame member connected to the first elongated frame member; a second roller attached to the second elongated frame member, the second roller configured to contact and roll upon a second surface of one of the first, second, third and fourth vessels; and a second sensor attached to the second elongated frame member and configured to contact a surface of the second vessel upon actuation in a second direction that is substantially orthogonal to the first direction. a first elongated frame member; a first roller attached to the first elongated frame member, the first roller configured to contact and roll upon a first surface of one of the first, second, third and fourth vessels; a first sensor attached to the first elongated frame member and configured to contact a surface of the first vessel upon actuation in a first direction; a second elongated frame member connected to the first elongated frame member; a second roller attached to the second elongated frame member, the second roller configured to contact and roll upon a second surface of one of the first, second, third and fourth vessels; and a second sensor attached to the second elongated frame member and configured to contact a surface of the second vessel upon actuation in a second direction that is substantially orthogonal to the first direction.
A knit design apparatus having: input means (10 - 16) by which an operator can input a design of a knit product; an input processor that converts data input by the operator into design data of the knit product; a memory for the design data; and a color monitor that displays the design data so as to express an arrangement and connection of stitches, characterized by comprising: detection means for detecting_whether or not functional data indicating flechage, stitch shift, dart (34, 36, 44, 46), widening, C-knitting is included in an insert or delete range defined by an insert or delete line inputted from the input means (10 - 16) with the instruction to paste a copied wale or course of stitches to the insert line between wales or courses or to delete a wale or course of stitches along the delete line, wherein the input processor shifts part of the insert line or the delete line so as not to include functional data, in a case where functional data would be included in the range. detection means for detecting_whether or not functional data indicating flechage, stitch shift, dart (34, 36, 44, 46), widening, C-knitting is included in an insert or delete range defined by an insert or delete line inputted from the input means (10 - 16) with the instruction to paste a copied wale or course of stitches to the insert line between wales or courses or to delete a wale or course of stitches along the delete line, wherein the input processor shifts part of the insert line or the delete line so as not to include functional data, in a case where functional data would be included in the range.
A non-pneumatic wheel defining an axis of rotation and defining axial, radial, and circumferential directions, the non-pneumatic wheel comprising: an annular shear band supporting a ground contacting surface; a plurality of spokes extending along the radial direction, the spokes having radially outer ends (112E, 114E) connected with the annular shear band, the spokes having radially-inner ends; a hub comprising a central portion configured for supporting the wheel on a vehicle, and an annular receiver supported on the central portion and extending circumferentially around the central portion, the annular receiver comprising: a plurality of grooves spaced apart from each other along the circumferential direction, each groove having a longitudinal axis extending along the axial direction, each groove configured for receipt of the radially-inner ends of the spokes; characterised in that the annular receiver further comprises a plurality of bridges spaced apart from each other long the circumferential direction, each bridge extending between a pair of the plurality of grooves, each bridge comprising a pair of spans (312, 314) forming an angle α < 180 degrees facing radially inward towards the axis of rotation.
A hydrophilic polymer derivative having a benzylidene acetal linker, which is represented by the following formula: wherein R 1 is a hydrogen atom or a hydrocarbon group; R 2, R 3, R 4, R 5, and R 6 are each independently a hydrogen atom or a substituent and at least one of R 3, R 4, and R 5 is an electron-withdrawing substituent or at least one of R 2 and R 6 is a substituent; X 1 is a chemically reactive functional group; P is a hydrophilic polymer; w is an integer of 1 to 8; and Z 1 and Z 2 are an independently selected divalent spacer. R 1 is a hydrogen atom or a hydrocarbon group; R 2, R 3, R 4, R 5, and R 6 are each independently a hydrogen atom or a substituent and at least one of R 3, R 4, and R 5 is an electron-withdrawing substituent or at least one of R 2 and R 6 is a substituent; X 1 is a chemically reactive functional group; P is a hydrophilic polymer; w is an integer of 1 to 8; and Z 1 and Z 2 are an independently selected divalent spacer.
A display device comprising: a display panel (14, 15, 16, 17, 19) configured to display an image on a display area: a transparent substrate disposed on the display panel (14, 15, 16, 17, 19) the display area of the display panel (14, 15, 16, 17, 19) facing the transparent substrate; a fingerprint sensor configured to detect a fingerprint contacting the transparent substrate, the display panel (14, 15, 16, 17, 19) being interposed between the fingerprint sensor and the transparent substrate; a drive integrated circuit, drive IC, configured to drive the display panel (14, 15, 16, 17, 19) a foam pad arranged at a surface of the display panel (14, 15, 16, 17, 19) facing away from the transparent substrate; and a metallic layer wherein the foam pad is interposed between the metallic layer and said surface of the display panel (14, 15, 16, 17, 19). a transparent substrate disposed on the display panel (14, 15, 16, 17, 19) the display area of the display panel (14, 15, 16, 17, 19) facing the transparent substrate; a fingerprint sensor configured to detect a fingerprint contacting the transparent substrate, the display panel (14, 15, 16, 17, 19) being interposed between the fingerprint sensor and the transparent substrate; a drive integrated circuit, drive IC, configured to drive the display panel (14, 15, 16, 17, 19) a foam pad arranged at a surface of the display panel (14, 15, 16, 17, 19) facing away from the transparent substrate; and a metallic layer wherein the foam pad is interposed between the metallic layer and said surface of the display panel (14, 15, 16, 17, 19).
Arrangement comprising a reciprocating piston engine, which is designed for combustion-free operation, and a vacuum chamber, in which a reduced air pressure can be generated relative to the atmosphere surrounding the reciprocating piston engine, wherein: - the reciprocating piston engine has at least one cylinder which is closed by a cylinder head and in which a piston can be moved, and the piston being coupled to a crankshaft of the reciprocating piston engine via a connecting rod on the side facing away from the cylinder head, the connecting rod and the crankshaft being integrated in a crankcase of the reciprocating piston engine; - wherein a valve control is provided which controls at least one inlet valve and at least one outlet valve in operation such that the piston in the at least one cylinder is moved back and forth by alternately applying ambient pressure and negative pressure; characterized in that - the at least one cylinder on the cylinder head has the at least one inlet valve and the at least one outlet valve, the vacuum chamber being connectable via the outlet valve to a working chamber of the at least one cylinder in a fluid-conducting manner, to generate a negative pressure in the working chamber, and the working chamber being fluid-conductively connectable to the atmosphere surrounding the reciprocating piston engine via the inlet valve to generate ambient pressure in the working chamber; - and the reciprocating piston engine is designed in such a way that during operation there is always a substantially constant pressure, in particular an atmospheric pressure surrounding the reciprocating piston engine, in a region of the piston facing away from the cylinder head. - the reciprocating piston engine has at least one cylinder which is closed by a cylinder head and in which a piston can be moved, and the piston being coupled to a crankshaft of the reciprocating piston engine via a connecting rod on the side facing away from the cylinder head, the connecting rod and the crankshaft being integrated in a crankcase of the reciprocating piston engine; - wherein a valve control is provided which controls at least one inlet valve and at least one outlet valve in operation such that the piston in the at least one cylinder is moved back and forth by alternately applying ambient pressure and negative pressure; characterized in that - the at least one cylinder on the cylinder head has the at least one inlet valve and the at least one outlet valve, the vacuum chamber being connectable via the outlet valve to a working chamber of the at least one cylinder in a fluid-conducting manner, to generate a negative pressure in the working chamber, and the working chamber being fluid-conductively connectable to the atmosphere surrounding the reciprocating piston engine via the inlet valve to generate ambient pressure in the working chamber; - and the reciprocating piston engine is designed in such a way that during operation there is always a substantially constant pressure, in particular an atmospheric pressure surrounding the reciprocating piston engine, in a region of the piston facing away from the cylinder head.
An aerosol-generating device comprising: a heater for heating an aerosol-forming substrate, the heater comprising an electrically resistive heating element and a heater substrate; wherein the heating element comprises a first portion formed from a first material and a second portion formed from a second material different to the first material, configured such that, when an electrical current is passed through the heating element the first portion is heated to a higher temperature than the second portion as a result of the electrical current, and wherein the first portion of the heating element is formed from a material having a defined relationship between temperature and resistivity, to allow the heater to be used both to heat the aerosol-forming substrate and to monitor temperature during use. a heater for heating an aerosol-forming substrate, the heater comprising an electrically resistive heating element and a heater substrate; wherein the heating element comprises a first portion formed from a first material and a second portion formed from a second material different to the first material, configured such that, when an electrical current is passed through the heating element the first portion is heated to a higher temperature than the second portion as a result of the electrical current, and wherein the first portion of the heating element is formed from a material having a defined relationship between temperature and resistivity, to allow the heater to be used both to heat the aerosol-forming substrate and to monitor temperature during use.
A wireless power transmitter comprising: a power supply unit configured to supply an input voltage; and a power conversion unit configured to generate wireless power based on a driving signal, the driving signal generated by the supplied input voltage and a first pulse width modulation, "PWM", signal, and transmit the wireless power to a wireless power receiver to charge a battery of the wireless power receiver; a power transmission control unit comprising a wireless reception module that receives, through a wireless network from the wireless power receiver, a voltage value of the battery charged with the wireless power, and configured to: generate the first PWM signal in a battery charging mode based on the received voltage value of the battery, and apply the generated first PWM signal to the power conversion unit, characterized in that the power transmission control unit is configured to generate an input current reference value based on the voltage value of the battery charged with the wireless power, a reference current value for charging the battery, and the input voltage value, generate a battery charging current value for compensating for a difference between the input current reference value and an input current value, and generate the first PWM signal based on the battery charging current value. a power supply unit configured to supply an input voltage; and a power conversion unit configured to generate wireless power based on a driving signal, the driving signal generated by the supplied input voltage and a first pulse width modulation, "PWM", signal, and transmit the wireless power to a wireless power receiver to charge a battery of the wireless power receiver; a power transmission control unit comprising a wireless reception module that receives, through a wireless network from the wireless power receiver, a voltage value of the battery charged with the wireless power, and configured to: generate the first PWM signal in a battery charging mode based on the received voltage value of the battery, and apply the generated first PWM signal to the power conversion unit,
A lighting device comprising: a first lighting strip; a second lighting strip, each of the first and second lighting strips comprising an elongate light emitting region, wherein the lighting emitting regions of the first and second lighting strips at least partially overlap in a region of overlap, and the first and second lighting strips are slidable relative to each other so that the region of overlap is adjustable, thereby to adjust the overall length of the lighting device, wherein each lighting strip has a first lighting emitting portion (12a, 14a) outside the region of overlap and a second light emitting portion (12b, 14b) in the region of overlap, wherein the combined light intensity per unit length of the second light emitting portions of the first and second lighting strips in the region of overlap corresponds to the light intensity per unit length of the first lighting portions (12a, 14a) of the first and second lighting strips, characterised in that the first lighting strip is driven off at the region of overlap, and wherein each lighting strip comprises an array of current driven lighting elements, wherein the first lighting strip comprises a sliding electrical connection coupled to the second lighting strip, which electrical connection bypasses the lighting elements of the first lighting strip in the region of overlap. a first lighting strip; a second lighting strip, each of the first and second lighting strips comprising an elongate light emitting region, wherein the lighting emitting regions of the first and second lighting strips at least partially overlap in a region of overlap, and the first and second lighting strips are slidable relative to each other so that the region of overlap is adjustable, thereby to adjust the overall length of the lighting device, wherein each lighting strip has a first lighting emitting portion (12a, 14a) outside the region of overlap and a second light emitting portion (12b, 14b) in the region of overlap, wherein the combined light intensity per unit length of the second light emitting portions of the first and second lighting strips in the region of overlap corresponds to the light intensity per unit length of the first lighting portions (12a, 14a) of the first and second lighting strips, characterised in that the first lighting strip is driven off at the region of overlap, and wherein each lighting strip comprises an array of current driven lighting elements, wherein the first lighting strip comprises a sliding electrical connection coupled to the second lighting strip, which electrical connection bypasses the lighting elements of the first lighting strip in the region of overlap.
Pump chamber for a peristaltic pump, the pump chamber comprising an elongate cavity (1.1) defined between an elastically deformable chamber wall (1.2) and a rigid chamber (1.3) wall, wherein the elastically deformable chamber wall (1.2) and the rigid wall (1.3) are arranged as a one-piece part by two-component injection moulding, characterized in that the elastically deformable chamber wall (1.2) has the shape of a lengthwise split hollow cylinder and that the rigid chamber wall (1.3) has a planar shape at least in sections of the elongate cavity (1.1).
A computer-implemented method for determining a bolus recommendation which accounts for multiple health events, comprising: - receiving a blood glucose measure from a patient; - receiving, by a bolus calculator, indicia for one or more health events to be associated with a request for an insulin recommendation, the bolus calculator implemented by a computer processor of a handheld diabetes management device; - receiving, by the bolus calculator, a request for an insulin recommendation for the patient; - prompting, by the bolus calculator, a user for an input for the health events associated with the insulin recommendation, - receiving, by the bolus calculator, an input value from the user in response to the prompting; and - computing, by the bolus calculator, an insulin recommendation for the patient using the input value, characterized by - determining, by the bolus calculator, how many health events are associated with the request for an insulin recommendation; wherein the determining is performed before the prompting, wherein the prompting is in response to a determination that two or more health events are associated with the request for an insulin recommendation and wherein the input represents a cumulative effect of the health events on the insulin on the patient; - initiating a countdown timer in response to the receipt of the blood glucose measure; - enabling an insulin recommendation function of the bolus calculator during the countdown timer; and - disabling the insulin recommendation function of the bolus calculator upon expiration of the countdown timer. - receiving a blood glucose measure from a patient; - receiving, by a bolus calculator, indicia for one or more health events to be associated with a request for an insulin recommendation, the bolus calculator implemented by a computer processor of a handheld diabetes management device; - receiving, by the bolus calculator, a request for an insulin recommendation for the patient; - prompting, by the bolus calculator, a user for an input for the health events associated with the insulin recommendation, - receiving, by the bolus calculator, an input value from the user in response to the prompting; and - computing, by the bolus calculator, an insulin recommendation for the patient using the input value, - determining, by the bolus calculator, how many health events are associated with the request for an insulin recommendation; wherein the determining is performed before the prompting, wherein the prompting is in response to a determination that two or more health events are associated with the request for an insulin recommendation and wherein the input represents a cumulative effect of the health events on the insulin on the patient; - initiating a countdown timer in response to the receipt of the blood glucose measure; - enabling an insulin recommendation function of the bolus calculator during the countdown timer; and - disabling the insulin recommendation function of the bolus calculator upon expiration of the countdown timer.
A method for fusing a secondary image captured by a high definition camera, said high definition camera providing 3D information available for the secondary image, with a main panoramic image captured by a panoramic capture set-up, said secondary image containing a more detailed view of one or more objects of interest of a selected region in the main panoramic image, the method comprising: - retrieving a 3D structure of objects contained in the secondary image by using said 3D information available for the secondary image; - determining a camera pose, which minimizes a projection error between the main panoramic image and a projection of the retrieved 3D structure according to said camera pose; - generating a parallax-corrected version of the secondary image, which matches the perspective in the main panoramic image by warping the more detailed view of the secondary image based on the determined camera pose; and - fusing said parallax-corrected version of the secondary image with said main panoramic image by replacing a content inside silhouettes of said objects in the main panoramic image by a content of the parallax-corrected version of the secondary image. - retrieving a 3D structure of objects contained in the secondary image by using said 3D information available for the secondary image; - determining a camera pose, which minimizes a projection error between the main panoramic image and a projection of the retrieved 3D structure according to said camera pose; - generating a parallax-corrected version of the secondary image, which matches the perspective in the main panoramic image by warping the more detailed view of the secondary image based on the determined camera pose; and - fusing said parallax-corrected version of the secondary image with said main panoramic image by replacing a content inside silhouettes of said objects in the main panoramic image by a content of the parallax-corrected version of the secondary image.