mhurhangee/patent-ind-claim-en huggingface dataset:
A sensor inserter assembly for applying an on-skin component (134, 134n, 134w, ...) to a skin of a host, the sensor inserter assembly comprising: an on-skin component (134, 134n, 134w, ...) being movable in at least a distal direction from a proximal position to a distal position, a first securing feature (800, 800y, ...) configured to releasably secure the on-skin component (134, 134n, 134w, ...) in the proximal position, a second securing feature configured to secure the on-skin component (134, 134n, 134w, ...) in the distal position, a pusher configured to move the on-skin component (134, 134n, 134w, ...) from the proximal position to the distal position, and a first resistance feature (804, 804y, ...) configured to prevent movement of the on-skin component (134, 134n, 134w, ...) in a proximal direction at least when the on-skin component (134, 134n, 134w, ...) is in the distal position, wherein the first resistance feature (804, 804y, ...) comprises a distally-facing surface of the pusher . an on-skin component (134, 134n, 134w, ...) being movable in at least a distal direction from a proximal position to a distal position, a first securing feature (800, 800y, ...) configured to releasably secure the on-skin component (134, 134n, 134w, ...) in the proximal position, a second securing feature configured to secure the on-skin component (134, 134n, 134w, ...) in the distal position, a pusher configured to move the on-skin component (134, 134n, 134w, ...) from the proximal position to the distal position, and a first resistance feature (804, 804y, ...) configured to prevent movement of the on-skin component (134, 134n, 134w, ...) in a proximal direction at least when the on-skin component (134, 134n, 134w, ...) is in the distal position, wherein the first resistance feature (804, 804y, ...) comprises a distally-facing surface of the pusher .
An electric storage device having a positive electrode, a negative electrode, a separator located between the positive electrode and the negative electrode, and a nonaqueous electrolyte, wherein the positive electrode has a positive substrate layer, a positive composite layer containing a positive active material, and an undercoat layer located between the positive substrate layer and the positive composite layer, a density of the positive composite layer is 2.1 g/cm 3 or more and 2.7 g/cm 3 or less, the positive electrode has a rate of increase in sheet resistance after a solvent immersion test of 30% or less, determined according to the description, and the undercoat layer consists of a composition obtained by providing a mixture consisting of a binder selected from chitosan derivatives, a conductive agent, and an organic acid, and heating the mixture to obtain a cross-linked structure, wherein the undercoat layer has a thickness of 0.2 μm or more and 2.0 μm or less.
An adhesive composition comprising a water-thinned isocyanate component A having an isocyanate concentration between 2% by weight and 40% by weight, defined as the proportion by weight of the isocyanate group in the overall molecule that contains at least one hydrophilized polyisocyanate, the isocyanate groups of which are in direct contact with water, wherein the adhesive composition has a content of polymeric polyols of not more than 10% by weight.
A remote control device , comprising: a memory; a user interface; and a processor, configured to: receive an indication of a first user interaction via the user interface; transmit a first command message after receipt of the indication of the first user interaction, wherein the first command message comprises a first command, the first command comprising a first intensity level and a fade period, wherein the first command is configured to adjust a lighting device to the first intensity level over the fade period; transmit a second command message, after a transmission interval from when the first command message was transmitted, wherein the second command message comprises a second command, the second command comprising a second intensity level and the fade period, wherein the second command is configured to adjust the lighting device to the second intensity level over the fade period, and wherein the fade period is longer than the transmission interval. a memory; a user interface; and a processor, configured to: receive an indication of a first user interaction via the user interface; transmit a first command message after receipt of the indication of the first user interaction, wherein the first command message comprises a first command, the first command comprising a first intensity level and a fade period, wherein the first command is configured to adjust a lighting device to the first intensity level over the fade period; transmit a second command message, after a transmission interval from when the first command message was transmitted, wherein the second command message comprises a second command, the second command comprising a second intensity level and the fade period, wherein the second command is configured to adjust the lighting device to the second intensity level over the fade period, and wherein the fade period is longer than the transmission interval. receive an indication of a first user interaction via the user interface; transmit a first command message after receipt of the indication of the first user interaction, wherein the first command message comprises a first command, the first command comprising a first intensity level and a fade period, wherein the first command is configured to adjust a lighting device to the first intensity level over the fade period; transmit a second command message, after a transmission interval from when the first command message was transmitted, wherein the second command message comprises a second command, the second command comprising a second intensity level and the fade period, wherein the second command is configured to adjust the lighting device to the second intensity level over the fade period, and wherein the fade period is longer than the transmission interval.
An electronic converter comprising: - a transformer (T) with a primary winding (T1) and a secondary winding (T2), wherein said primary winding (T1) is coupled to an input for receiving an input power signal ( V in ), and wherein said secondary winding (T2) is coupled to an output comprising a positive terminal and a negative terminal (GND 2 ) for providing an output power signal ( V out , i out ), - an electronic switch (S) arranged between said input and said primary winding (T1), wherein said electronic switch (S) is configured to control the current flow through said primary winding (T1), and - a snubber circuit arranged between said secondary winding (T2) and said output (106, GND 2 ), characterized in that said snubber circuit comprises a first (D2) and a second (D3) diode connected directly in series and a capacitor (C2) connected to the intermediate point between said first (D2) and said second (D3) diode, wherein the cathode of said first diode (D2) is connected directly to said positive terminal of said output and the anode of said second diode (D3) is connected directly to said negative terminal (GND 2 ) of said output. - a transformer (T) with a primary winding (T1) and a secondary winding (T2), wherein said primary winding (T1) is coupled to an input for receiving an input power signal ( V in ), and wherein said secondary winding (T2) is coupled to an output comprising a positive terminal and a negative terminal (GND 2 ) for providing an output power signal ( V out , i out ), - an electronic switch (S) arranged between said input and said primary winding (T1), wherein said electronic switch (S) is configured to control the current flow through said primary winding (T1), and - a snubber circuit arranged between said secondary winding (T2) and said output (106, GND 2 ), characterized in that said snubber circuit comprises a first (D2) and a second (D3) diode connected directly in series and a capacitor (C2) connected to the intermediate point between said first (D2) and said second (D3) diode, wherein the cathode of said first diode (D2) is connected directly to said positive terminal of said output and the anode of said second diode (D3) is connected directly to said negative terminal (GND 2 ) of said output.
A photocatalyst filter for increasing light efficiency, comprising: a base comprising an internal space which is permeable to a fluid, the base further comprising a plurality of reflective walls defining the internal space ; wherein the plurality of walls are formed of a reflective material; wherein the reflective material is one of aluminum, silver or platinum; a plurality of photocatalyst beads provided within the internal space; and a cover attached to the base, wherein the cover retains the photocatalyst beads within the internal space; wherein a surface of the internal space is reflective, wherein the cover includes a photocatalyst material, wherein the photocatalyst beads comprise titanium oxide, zinc oxide, cadmium sulfide, tungsten oxide or vanadium oxide, and wherein the plurality of photocatalyst beads have spherical shapes that are hollow. a base comprising an internal space which is permeable to a fluid, the base further comprising a plurality of reflective walls defining the internal space ; wherein the plurality of walls are formed of a reflective material; wherein the reflective material is one of aluminum, silver or platinum; a plurality of photocatalyst beads provided within the internal space; and a cover attached to the base, wherein the cover retains the photocatalyst beads within the internal space; wherein a surface of the internal space is reflective, wherein the cover includes a photocatalyst material, wherein the photocatalyst beads comprise titanium oxide, zinc oxide, cadmium sulfide, tungsten oxide or vanadium oxide, and wherein the plurality of photocatalyst beads have spherical shapes that are hollow.
Method for controlling an electric motor (EM), comprising a stator and a rotor, of a hybrid electric vehicle (VEH), said vehicle (VEH) comprising a computer (ECM), an electric motor (EM) and an internal combustion engine (ICE), said method comprising a step (A) of activating a non-nominal mode, said non-nominal mode controlling said electric motor (EM) to a region of low efficiency able to heat a fluid of a first circuit, characterized in that said step (A) of activating said non-nominal mode requires a temperature of said fluid of said first circuit to be below a pre-set threshold for a pre-set duration after start-up.
Tattoo apparatus , comprising a pen , gripped and used by the operator with one hand to draw tattoos, including electrical control means (11.1, 11.2) that determine an alternating movement of a bar (11.11, 11.21), which supports one or more needles (11.12, 11.22), which by penetrating the skin of a person deposit pigments in the dermis of this person, said pen comprising flexible cable means and related electrical connector means (11.13, 11.23), for the detachable electrical connection with respect to a separate electrical supply and control circuit, characterized in that it comprises two distinct units (A, B) for the electrical supply and control of said pen , which include respective electric circuit means , electrically isolated, and which are worn separately on the arm of the operator corresponding to the hand that grips said pen , i.e., a first unit (A), detachably connected, by means of a first support means , with respect to the biceps of said arm of the operator and comprising first electric circuit means , and a second unit (B), detachably connected, by means of a second support means , with respect to the wrist of the same arm of the operator and comprising second electric circuit means , wherein said first electric circuit means and said second electric circuit means are electrically connected to each other by means of flexible electrical cable connection means (12.3, 12.5) and said pen is detachably electrically connected with respect to said second electric circuit means .
Computer-implemented method for providing data records, comprising: - storing a plurality of data records in individually encrypted form on a storage medium of a server computer system , wherein the server computer system does not have access to the data records in unencrypted form and does not have access to means for decrypting (PrivKC) the data records, wherein each of the unencrypted data records contains one or more field values each stored in their own fields; - storing an unencrypted index on the storage medium by means of the server computer system, wherein the unencrypted index comprises tokens which have been generated by tokenization of a plurality of the field values of the unencrypted data records, wherein each of the tokens contained in the index is linked to one or more pointers to those data records of which the tokenization has generated the token, wherein the index is free of pointers to individual fields of these data records which contain the token; - receiving a search request of a client computer system over a network by means of the server computer system; - as a response to the search request, performing the requested search in the index by means of the server computer system to identify one or more of the data records ([[DR3]]) as a result of the search; and - returning the one or more identified data records in encrypted form to the client computer system over the network. - storing a plurality of data records in individually encrypted form on a storage medium of a server computer system , wherein the server computer system does not have access to the data records in unencrypted form and does not have access to means for decrypting (PrivKC) the data records, wherein each of the unencrypted data records contains one or more field values each stored in their own fields; - storing an unencrypted index on the storage medium by means of the server computer system, wherein the unencrypted index comprises tokens which have been generated by tokenization of a plurality of the field values of the unencrypted data records, wherein each of the tokens contained in the index is linked to one or more pointers to those data records of which the tokenization has generated the token, wherein the index is free of pointers to individual fields of these data records which contain the token; - receiving a search request of a client computer system over a network by means of the server computer system; - as a response to the search request, performing the requested search in the index by means of the server computer system to identify one or more of the data records ([[DR3]]) as a result of the search; and - returning the one or more identified data records in encrypted form to the client computer system over the network.
A collapsible tunnel system and a base layer , wherein the collapsible tunnel system is attached to the base layer , the collapsible tunnel system comprising: a first tubular structure attached to the base layer including a first end portion and a second end portion , the first tubular structure having a first tunnel extending from the first end portion to the second end portion ; a second tubular structure attached to the base layer including a third end portion and a fourth end portion , the second tubular structure having a second tunnel extending from the third end portion to the fourth end portion ; a tensile strand extending through the first tunnel and the second tunnel ; the collapsible tunnel system having a first configuration wherein the second end portion of the first tubular structure is spaced apart from the third end portion of the second tubular structure ; the collapsible tunnel system having a second configuration wherein the second end portion of the first tubular structure is closer to the third end portion of the second tubular structure than in the first configuration; and wherein applying tension across a portion of the tensile strand places the collapsible tunnel system in the second configuration; and wherein: the tensile strand includes a catching element ; wherein a size of the catching element prevents the catching element from passing through the first tunnel ; and wherein the catching element presses against the first end portion of the first tubular structure when tension is applied across the tensile strand . a first tubular structure attached to the base layer including a first end portion and a second end portion , the first tubular structure having a first tunnel extending from the first end portion to the second end portion ; a second tubular structure attached to the base layer including a third end portion and a fourth end portion , the second tubular structure having a second tunnel extending from the third end portion to the fourth end portion ; a tensile strand extending through the first tunnel and the second tunnel ; the collapsible tunnel system having a first configuration wherein the second end portion of the first tubular structure is spaced apart from the third end portion of the second tubular structure ; the collapsible tunnel system having a second configuration wherein the second end portion of the first tubular structure is closer to the third end portion of the second tubular structure than in the first configuration; and wherein applying tension across a portion of the tensile strand places the collapsible tunnel system in the second configuration; and wherein: the tensile strand includes a catching element ; wherein a size of the catching element prevents the catching element from passing through the first tunnel ; the tensile strand includes a catching element ; wherein a size of the catching element prevents the catching element from passing through the first tunnel ;
Internal combustion engine having four cylinders , wherein each cylinder has a first inlet valve and at least one second inlet valve , wherein an inlet camshaft having actuating cams associated with the inlet valves is provided for actuating the first inlet valves and the at least second inlet valves , wherein each first inlet valve is associated with a first actuating cam having a first cam geometry and a second actuating cam having a second cam geometry, wherein the first cam geometry and the second cam geometry differ from one another at least over a portion of their periphery, wherein the first actuating cam and the second actuating cam can be activated, if necessary, by means of at least one valve train adjusting device by a relative displacement with respect to the associated first inlet valve in the axial direction of the inlet camshaft in order to actuate the relevant first inlet valve , and wherein at at least one cylinder , the second inlet valve is associated with a first actuating cam having a first cam geometry and a second actuating cam having a second cam geometry, wherein the first cam geometry and the second cam geometry differ from one another at least over a portion of their periphery, wherein the first actuating cam and the second actuating cam can be activated, if necessary, by means of at least one valve train adjusting device by the relative displacement with respect to the associated second inlet valve in the axial direction of the inlet camshaft in order to actuate the second inlet valve , wherein a) at exactly two cylinders , the second inlet valve is associated with a first actuating cam having a first cam geometry and a second actuating cam having a second cam geometry and b) at exactly two cylinders , the second inlet valve is associated with only one individual actuating cam in each case, wherein the second cam geometry of the second actuating cam is designed such that, when the second actuating cam is activated, it causes a zero stroke on the corresponding inlet valve and wherein the first inlet valves are each associated with a filling duct and the second inlet valves are each associated with a swirl duct. a) at exactly two cylinders , the second inlet valve is associated with a first actuating cam having a first cam geometry and a second actuating cam having a second cam geometry and b) at exactly two cylinders , the second inlet valve is associated with only one individual actuating cam in each case,
An illumination system, comprising: a tapped linear driver circuit including a plurality of tap points (19A - 19C), the driver circuit being configured to produce a cyclical waveform and switch the tap points on and off in sequence during each cycle of the waveform ; an LED strip comprising a plurality of series-connected LEDs arranged in series-connected groups , each LED group being connected to a different respective one of the plurality of tap points (19A - 19C); a light guide having a light emitting surface, the light emitting surface having a plurality of portions (312 - 318; 422 - 428), characterized in that each light guide portion (312 - 318; 422 - 428) having a different light extraction pattern (322 - 328; 432 - 438) formed thereon, each light extraction pattern (322 - 328; 432 - 438) including a different plurality of light extraction features , and each light extraction pattern having a different light extraction feature density; and each LED group of the LED strip is coupled to a different respective one of the plurality of portions (312 - 318; 422 - 428) of the light guide , whereby a length of a period for which the respective LED group coupled to the respective portion is powered on during each cycle of the waveform is inversely proportional to the light extraction feature density of the light extraction pattern (322 - 328; 432 - 438) in the respective portion (312 - 318; 422 - 428) of the light guide . a tapped linear driver circuit including a plurality of tap points (19A - 19C), the driver circuit being configured to produce a cyclical waveform and switch the tap points on and off in sequence during each cycle of the waveform ; an LED strip comprising a plurality of series-connected LEDs arranged in series-connected groups , each LED group being connected to a different respective one of the plurality of tap points (19A - 19C); a light guide having a light emitting surface, the light emitting surface having a plurality of portions (312 - 318; 422 - 428), characterized in that each light guide portion (312 - 318; 422 - 428) having a different light extraction pattern (322 - 328; 432 - 438) formed thereon, each light extraction pattern (322 - 328; 432 - 438) including a different plurality of light extraction features , and each light extraction pattern having a different light extraction feature density; and each LED group of the LED strip is coupled to a different respective one of the plurality of portions (312 - 318; 422 - 428) of the light guide , whereby a length of a period for which the respective LED group coupled to the respective portion is powered on during each cycle of the waveform is inversely proportional to the light extraction feature density of the light extraction pattern (322 - 328; 432 - 438) in the respective portion (312 - 318; 422 - 428) of the light guide .