mhurhangee/patent-ind-claim-en huggingface dataset:
A wavelength conversion device, comprising: a substrate ; a reflective resin layer on the substrate, the reflective resin layer comprising silicone or siloxane, wherein the reflective resin layer further comprises at least one further optically reflective material; and a wavelength conversion layer on the reflective resin layer, configured to receive incident light and to provide output light by wavelength conversion of the incident light, such that the output light is reflected by the reflective resin layer. a substrate ; a reflective resin layer on the substrate, the reflective resin layer comprising silicone or siloxane, wherein the reflective resin layer further comprises at least one further optically reflective material; and a wavelength conversion layer on the reflective resin layer, configured to receive incident light and to provide output light by wavelength conversion of the incident light, such that the output light is reflected by the reflective resin layer.
A driving device to drive a motor having coils , the driving device comprising: an inverter to output a voltage to the coils ; a connection switching unit to switch a connection state of the coils between a Y connection and a delta connection; and a controller to cause the inverter to stop outputting, when the connection state of the coils is the Y connection and a current value of the inverter reaches a first threshold A, or when the connection state of the coils is the delta connection and the current value of the inverter reaches a second threshold B, characterized in that the second threshold B is set to a value lower by 5 to 15% than a value √3 times as high as the first threshold A, and the amount of 5 to 15% is obtained by subtracting 0 to 10% corresponding to leakage fluxes from 15% corresponding to the increasing amount of a magnetomotive force when any phase of output of the inverter is open. an inverter to output a voltage to the coils ; a connection switching unit to switch a connection state of the coils between a Y connection and a delta connection; and a controller to cause the inverter to stop outputting, when the connection state of the coils is the Y connection and a current value of the inverter reaches a first threshold A, or when the connection state of the coils is the delta connection and the current value of the inverter reaches a second threshold B, characterized in that the second threshold B is set to a value lower by 5 to 15% than a value √3 times as high as the first threshold A, and the amount of 5 to 15% is obtained by subtracting 0 to 10% corresponding to leakage fluxes from 15% corresponding to the increasing amount of a magnetomotive force when any phase of output of the inverter is open.
Pressure sensor arrangement having a tube in the cross section of which there is disposed a diaphragm to which the pressure to be measured is applied, wherein the diaphragm is fastened to the inner wall of the tube by means of an articulation running along the circumferential region of the diaphragm , the outer wall of the tube is provided with a recess to reduce the tube thickness in a region opposite the diaphragm and means are provided in the recess for detecting a rotation of the articulation as a function of a deformation of the diaphragm , characterised in that there is disposed in the recess a gap running centrally with respect to the diaphragm , partly protruding into the diaphragm and the width of which is less than the diaphragm thickness.
Battery system having a plurality of battery cells and a temperature-control device , at least comprising a cuboid-shaped hollow body having at least one connection device for supplying a separately temperature-controlled fluid and at least one connection device for discharging said fluid, a multiplicity of regularly arranged and identically formed apertures extending from a first body surface to a second body surface , wherein a cylindrical battery cell is received in each aperture and so a fluidtight liquid chamber is formed, characterised in that the hollow body , excluding the cell head and the cell base , extends over a height h of > 20 to < 100% of the total height H of the battery system, in that the battery cells are in direct contact with the temperature-controlled fluid, and in that the separately temperature-controlled fluid is pumped in a circulating manner via a heating and/or cooling device.
A selective catalytic reduction article comprising a washcoat containing both a first 8-ring small pore molecular sieve promoted with copper and a second 8-ring small pore molecular sieve promoted with iron, the catalyst effective to catalyze the reduction of nitrogen oxides in the presence of a reductant, wherein the first and the second 8-ring small pore molecular sieves have a CHA crystal structure; and wherein the copper is exchanged into the first 8-ring small pore molecular sieve and the iron is exchanged into the second 8-ring small pore molecular sieve, wherein the first 8-ring small pore molecular sieve promoted with copper further comprises a barium component. wherein the copper is exchanged into the first 8-ring small pore molecular sieve and the iron is exchanged into the second 8-ring small pore molecular sieve, wherein the first 8-ring small pore molecular sieve promoted with copper further comprises a barium component.
A passive ignition device suitable for a rocket motor , the ignition device comprising a gas tank adapted to contain pressurized gas, a supply circuit connected to the gas tank and configured to supply pressurized gas from the gas tank towards a combustion chamber of the motor, and a rupture element arranged at the outlet of the gas tank and configured to be ruptured under the effect of a pressure applied by the pressurized gas when the pressurized gas is supplied to the combustion chamber of the motor, characterized in that the gas tank contains hydrogen gas.
- Single-lever tap (1; 1'), normally used for showers or built-in installations, wherein it includes means for opening and closing the water outlet and draining the single-lever tap, incorporating a perforation being different from the water outlet for the external drainage of the water retained in the pipes, and wherein it further includes a cartridge with drainage means , the cartridge comprising a drive block coupled in a housing , a movable ceramic disc linked to the drive block and to a fixed lower ceramic disc and a closing base with three openings and sealing gasket , wherein the fixed lower ceramic disc , comprises a through-hole for hot water inlet and a through-hole for cold water inlet, positioned very close to their external diameter, and slightly separated from each other, a through-hole for water outlet , positioned around its geometric centre and a water drain , characterised in that the drainage means are side drainage means, that the water drain on the fixed lower ceramic disc is configured as a circular segment, positioned in line with the outlet through-hole and centred with the slanted through-holes (14 and 14') of the water inlet, and that the movable ceramic disc comprises a slanted cavity , centred with a water drainage through-hole and with the water drain , wherein the water drain of the fixed lower ceramic disc communicates to the outside through slots positioned around the contour of the housing in communication with a perforation in the single-lever tap (1-1').
A direct AC driving circuit for driving at least one LED , the direct AC driving circuit comprises: - a LED-string that comprises a series connection of at least two LEDs , wherein the LED-string is directly powered from a rectified AC mains voltage ; and - a LED-string switching unit that is configured to control at least one LED-shorting unit that is arranged in parallel to at least one LED of the LED-string ; wherein the direct AC driving circuit comprises means configured to provide a low supply voltage (V Low ) which is also derived from the rectified AC mains voltage , wherein the means for providing the low supply voltage is a low supply voltage circuit generating the low supply voltage (V Low ) from a voltage of the LED-string unutilized for light generation, the direct AC driving circuit being characterized in that the low supply voltage (V Low ) is provided by means of a capacitance (C40) that is charged until the AC mains voltage reaches a forward voltage (V F ) in the LED-string , and wherein the low supply voltage (V Low ) is used to power the LED-string switching unit . - a LED-string that comprises a series connection of at least two LEDs , wherein the LED-string is directly powered from a rectified AC mains voltage ; and - a LED-string switching unit that is configured to control at least one LED-shorting unit that is arranged in parallel to at least one LED of the LED-string ; wherein the direct AC driving circuit comprises means configured to provide a low supply voltage (V Low ) which is also derived from the rectified AC mains voltage , wherein the means for providing the low supply voltage is a low supply voltage circuit generating the low supply voltage (V Low ) from a voltage of the LED-string unutilized for light generation, the direct AC driving circuit being characterized in that the low supply voltage (V Low ) is provided by means of a capacitance (C40) that is charged until the AC mains voltage reaches a forward voltage (V F ) in the LED-string , and wherein the low supply voltage (V Low ) is used to power the LED-string switching unit .
Apparatus comprising: a pair of terminals to receive an alternating polarity excitation voltage; a first network, wherein the first network includes a first plurality of light emitting diodes, LEDs, (LED Group 1) arranged in series connection to form a first current path, the first plurality of LEDs having a first color characteristic; a second network, wherein the second network includes a second plurality of LEDs (LED Group 2) arranged in series connection to form a second current path, the second plurality of LEDs having a second color characteristic that is substantially different from the first color characteristic; characterised by further comprising a controllable impedance element (Q1) in a bypass path between the first and second networks to permit current to flow through said first network and divert substantially all of said current away from said second network; wherein the first network and second network are connected in series to said pair of terminals, the second network and the bypass path are connected in parallel, and the controllable impedance (Q1) element is arranged in the bypass path; and a dynamic impedance control module (Q2) coupled to the controllable impedance element (Q1) to smoothly and continuously transition substantially all of said diverted current from said bypass path to said second network as a function of said alternating polarity excitation voltage. a pair of terminals to receive an alternating polarity excitation voltage; a first network, wherein the first network includes a first plurality of light emitting diodes, LEDs, (LED Group 1) arranged in series connection to form a first current path, the first plurality of LEDs having a first color characteristic; a second network, wherein the second network includes a second plurality of LEDs (LED Group 2) arranged in series connection to form a second current path, the second plurality of LEDs having a second color characteristic that is substantially different from the first color characteristic; characterised by further comprising a controllable impedance element (Q1) in a bypass path between the first and second networks to permit current to flow through said first network and divert substantially all of said current away from said second network; wherein the first network and second network are connected in series to said pair of terminals, the second network and the bypass path are connected in parallel, and the controllable impedance (Q1) element is arranged in the bypass path; and a dynamic impedance control module (Q2) coupled to the controllable impedance element (Q1) to smoothly and continuously transition substantially all of said diverted current from said bypass path to said second network as a function of said alternating polarity excitation voltage.
A fluid control device , comprising: an inlet configured to be placed in fluid communication with a bodily fluid source; an outlet configured to be placed in fluid communication with a fluid collection device , a negative pressure differential being produced between the outlet and the inlet when the outlet is placed in fluid communication with the fluid collection device; a sequestration portion in fluid communication with the inlet , the sequestration portion including a first flow controller configured to transition from a first state in which the sequestration portion is sequestered from the outlet to a second state in which the sequestration portion is in fluid communication with the outlet when the negative pressure differential has a first magnitude; and a sampling portion in fluid communication with the outlet, the sampling portion including a second flow controller configured to transition from a first state in which the sampling portion is sequestered from the inlet to a second state in which the sampling portion is in fluid communication with the inlet when the negative pressure differential has a second magnitude greater than the first magnitude. an inlet configured to be placed in fluid communication with a bodily fluid source; an outlet configured to be placed in fluid communication with a fluid collection device , a negative pressure differential being produced between the outlet and the inlet when the outlet is placed in fluid communication with the fluid collection device; a sequestration portion in fluid communication with the inlet , the sequestration portion including a first flow controller configured to transition from a first state in which the sequestration portion is sequestered from the outlet to a second state in which the sequestration portion is in fluid communication with the outlet when the negative pressure differential has a first magnitude; and a sampling portion in fluid communication with the outlet, the sampling portion including a second flow controller configured to transition from a first state in which the sampling portion is sequestered from the inlet to a second state in which the sampling portion is in fluid communication with the inlet when the negative pressure differential has a second magnitude greater than the first magnitude.
An automatic moving snow removal device comprising: a working module, configured to execute specific work of the automatic moving snow removal device; a moving module, configured to drive the automatic moving snow removal device to move on the ground; an energy module, configured to provide energy for the moving module and the working module of the automatic moving snow removal device; and a control module, wherein the control module is configured to control the working module and the moving module of the automatic moving snow removal device, such that the automatic moving snow removal device moves and works within a preset border ; the automatic moving snow removal device further comprises a location navigation module, and the control module generates a snow removal path according to a map of the preset border, and controls the automatic moving snow removal device to move along the snow removal path according to coordinate data provided by the location navigation module; wherein the map of the preset border comprises at least two snow removal areas and a connecting passage area between the two snow removal areas, and the control module can execute different control modes according to marks of different areas; and wherein the control module defaults that the snow removal is required for the snow removal areas, and the snow removal is optional for the connecting passage area. a working module, configured to execute specific work of the automatic moving snow removal device; a moving module, configured to drive the automatic moving snow removal device to move on the ground; an energy module, configured to provide energy for the moving module and the working module of the automatic moving snow removal device; and a control module, wherein the control module is configured to control the working module and the moving module of the automatic moving snow removal device, such that the automatic moving snow removal device moves and works within a preset border ; the automatic moving snow removal device further comprises a location navigation module, and the control module generates a snow removal path according to a map of the preset border, and controls the automatic moving snow removal device to move along the snow removal path according to coordinate data provided by the location navigation module; wherein the map of the preset border comprises at least two snow removal areas and a connecting passage area between the two snow removal areas, and the control module can execute different control modes according to marks of different areas; and wherein the control module defaults that the snow removal is required for the snow removal areas, and the snow removal is optional for the connecting passage area.
Valve for controlling a coolant circuit of a refrigerating system, preferably having a heat pump function, - having a housing , which has at least one inlet opening and at least one outlet opening , - having a regulating chamber provided in the housing , which extends between the at least one inlet opening and the at least one outlet opening , - having a plugging opening provided on the housing , which is adjacent to the regulating chamber , - having a valve arrangement , which is insertable at least partially into the regulating chamber , by means of which a flow path of a medium between the at least one inlet opening and the at least on outlet opening is controllable, - having a rotary slide arrangement , arranged in the regulating chamber of the valve arrangement , which has a control disc , which is rotatable in relation to the at least one rotary slide support , wherein the at least one rotary slide support is provided non-rotationally to the housing and is allocated to the at least one outlet opening , characterised in that - that the at least one rotary slide support is held by a receiving adapter , which is connectable to the housing , and - the at least one rotary slide support is mounted floatingly to the housing . - having a housing , which has at least one inlet opening and at least one outlet opening , - having a regulating chamber provided in the housing , which extends between the at least one inlet opening and the at least one outlet opening , - having a plugging opening provided on the housing , which is adjacent to the regulating chamber , - having a valve arrangement , which is insertable at least partially into the regulating chamber , by means of which a flow path of a medium between the at least one inlet opening and the at least on outlet opening is controllable, - having a rotary slide arrangement , arranged in the regulating chamber of the valve arrangement , which has a control disc , which is rotatable in relation to the at least one rotary slide support , wherein the at least one rotary slide support is provided non-rotationally to the housing and is allocated to the at least one outlet opening , characterised in that - that the at least one rotary slide support is held by a receiving adapter , which is connectable to the housing , and - the at least one rotary slide support is mounted floatingly to the housing .
A luminescent composition of matter characterized by the formula: AE 1-x Li 3-2y Al 1+2y-z Si z O 4-4y-z N 4y+z :Eu x ; AE = Ca, Sr, Ba, or a combination thereof; 0 < x < 0.04 ; 0.4 < y < 0.6 ; and 0 < z < 0.05 .
A head mounted display for game play via a game cloud system , the head mounted display comprising: a camera configured to capture a plurality of images of a real-world environment in which a user is wearing the head mounted display; a wireless access circuit coupled to the camera, wherein the wireless access circuit is configured to encode the images to output a plurality of encoded images of the real-world environment, wherein the wireless access circuit is configured to packetize the encoded images of the real-world environment to output packetized data of the real-world environment, wherein the wireless access circuit is configured to send the packetized data having the encoded images via a router and a network , to the game cloud system for processing by the game cloud system, wherein the wireless access circuit is configured to depacketize a stream of encoded media data received from the game cloud system via the router and the network to provide depacketized data, wherein the wireless access circuit is configured to decode the depacketized data to output computer-generated interactive media; and a game processing circuit coupled to the wireless access circuit, wherein the game processing circuit is configured to drive a portion of interactivity associated with a game program by superimposing the computer-generated interactive media on at least one of the images, the computer-generated interactive media generated based on the images. a camera configured to capture a plurality of images of a real-world environment in which a user is wearing the head mounted display; a wireless access circuit coupled to the camera, wherein the wireless access circuit is configured to encode the images to output a plurality of encoded images of the real-world environment, wherein the wireless access circuit is configured to packetize the encoded images of the real-world environment to output packetized data of the real-world environment, wherein the wireless access circuit is configured to send the packetized data having the encoded images via a router and a network , to the game cloud system for processing by the game cloud system, wherein the wireless access circuit is configured to depacketize a stream of encoded media data received from the game cloud system via the router and the network to provide depacketized data, wherein the wireless access circuit is configured to decode the depacketized data to output computer-generated interactive media; and a game processing circuit coupled to the wireless access circuit, wherein the game processing circuit is configured to drive a portion of interactivity associated with a game program by superimposing the computer-generated interactive media on at least one of the images, the computer-generated interactive media generated based on the images.