mhurhangee/patent-ind-claim-en huggingface dataset:
A composition comprising: 1) a synthetic oil selected from the group consisting of polyol esters, polyvinyl ethers and combinations thereof, and 2) perfluoropolyether. 1) a synthetic oil selected from the group consisting of polyol esters, polyvinyl ethers and combinations thereof, and 2) perfluoropolyether.
A solar cell, comprising: a substrate , comprising a first surface and a second surface opposite to each other in a thickness direction of the substrate; a first passivation layer , disposed on the first surface of the substrate ; a second passivation layer , disposed on a side of the first passivation layer away from the substrate ; wherein a material of the first passivation layer is the same as that of the second passivation layer ; an atomic packing density of the first passivation layer is higher than that of the second passivation layer ; and an average thickness of the first passivation layer is smaller than that of the second passivation layer ; characterized in that a hydrogen content of the first passivation layer is less than that of the second passivation layer ; and in that the first passivation layer and the second passivation layer further cover a peripheral side of the substrate , wherein a covering area of the first passivation layer on the peripheral side of the substrate is less than or equal to a covering area of the second passivation layer on the peripheral side of the substrate . a substrate , comprising a first surface and a second surface opposite to each other in a thickness direction of the substrate; a first passivation layer , disposed on the first surface of the substrate ; a second passivation layer , disposed on a side of the first passivation layer away from the substrate ; wherein a material of the first passivation layer is the same as that of the second passivation layer ; an atomic packing density of the first passivation layer is higher than that of the second passivation layer ; and an average thickness of the first passivation layer is smaller than that of the second passivation layer ; characterized in that a hydrogen content of the first passivation layer is less than that of the second passivation layer ; and in that the first passivation layer and the second passivation layer further cover a peripheral side of the substrate , wherein a covering area of the first passivation layer on the peripheral side of the substrate is less than or equal to a covering area of the second passivation layer on the peripheral side of the substrate .
A braking device of at least one rotary shaft (S; S1, S2) extending along a longitudinal axis X, the braking device comprising at least: - an actuation unit (I) comprising at least one winding (B; B1, B2; B1', B2') and two series of springs (R1, R2) mounted in a fixed housing (C), - two friction discs (D1, D2) mounted axially slidable on said at least one rotary shaft (S; S1, S2), - a rotationally fixed end flange (F1), - an intermediate flange (F2) that is rotationally fixed but mounted axially slidable between the two friction discs (D1, D2), - two magnetic armatures (A1, A2) that are rotationally fixed, but mounted axially slidable and biased respectively, when idle, by the two series of springs (R1, R2), in such a way that one (A2) of the two magnetic armatures (A1, A2) is pushed against one (D1) of the two friction discs (D1, D2), which then engages the intermediate flange (F2), which in turn engages the other friction disc (D2), which engages the end flange (F1), and when the winding (B; B1, B2; B1', B2') is supplied with current, the magnetic armatures (A1, A2) are magnetically biased towards the winding (B; B1, B2; B1', B2'), the magnetic armatures (A1, A2) being arranged in series along the longitudinal axis X, with each of the series of springs (R1, R2) respectively biasing a magnetic armature (A1, A2), a series of springs (R2) passing through the thickness of one of the two magnetic armatures (A1) in order to bias the other magnetic armature (A2), characterized in that a non-magnetic intermediate gap (J2) separates the two magnetic armatures (A1, A2). - an actuation unit (I) comprising at least one winding (B; B1, B2; B1', B2') and two series of springs (R1, R2) mounted in a fixed housing (C), - two friction discs (D1, D2) mounted axially slidable on said at least one rotary shaft (S; S1, S2), - a rotationally fixed end flange (F1), - an intermediate flange (F2) that is rotationally fixed but mounted axially slidable between the two friction discs (D1, D2), - two magnetic armatures (A1, A2) that are rotationally fixed, but mounted axially slidable and biased respectively, when idle, by the two series of springs (R1, R2), in such a way that one (A2) of the two magnetic armatures (A1, A2) is pushed against one (D1) of the two friction discs (D1, D2), which then engages the intermediate flange (F2), which in turn engages the other friction disc (D2), which engages the end flange (F1), and when the winding (B; B1, B2; B1', B2') is supplied with current, the magnetic armatures (A1, A2) are magnetically biased towards the winding (B; B1, B2; B1', B2'), the magnetic armatures (A1, A2) being arranged in series along the longitudinal axis X, with each of the series of springs (R1, R2) respectively biasing a magnetic armature (A1, A2), a series of springs (R2) passing through the thickness of one of the two magnetic armatures (A1) in order to bias the other magnetic armature (A2),
A method comprising: receiving, by a computing device and from a user device , a request to access a destination device wherein the computing device has authority to grant access to the destination device, and wherein the request comprises a digital certificate associated with the user device; determining to grant the user device access to the destination device; determining, based on the digital certificate, an address of the user device; causing, based on the determining to grant the user device access to the destination device, a distributed ledger entry to be created on a distributed ledger, wherein the distributed ledger entry comprises an indication that the user device is authorized to access the destination device and an indication of the address of the user device; and sending, to the user device and based on the determining to grant the user device access to the destination device, a locator of the destination device on a communication network. receiving, by a computing device and from a user device , a request to access a destination device wherein the computing device has authority to grant access to the destination device, and wherein the request comprises a digital certificate associated with the user device; determining to grant the user device access to the destination device; determining, based on the digital certificate, an address of the user device; causing, based on the determining to grant the user device access to the destination device, a distributed ledger entry to be created on a distributed ledger, wherein the distributed ledger entry comprises an indication that the user device is authorized to access the destination device and an indication of the address of the user device; and sending, to the user device and based on the determining to grant the user device access to the destination device, a locator of the destination device on a communication network.
Glass-ceramic cooking surface for induction heating having improved coloured display capability and heat shielding, consisting of a transparent, coloured glass-ceramic plate which has a thickness in the range from 2.5 mm to 6 mm and has high-quartz mixed crystals as predominant crystal phase, where the glass-ceramic contains none of the chemical refining agents arsenic oxide and antimony oxide except for unavoidable traces in an amount of less than 0.05%, characterized by transmission values of the cooking surface of: > 0.4% at at least one wavelength in the blue range from 380 to 500 nm, > 2% - < 12% at 630 nm, < 45% at 1600 nm, preferably < 40%, and a light transmission in the visible range of 0.5-2%, > 0.1% in the range of visible light in the total wavelength range > 500 nm, in the near infrared at 950 nm > 30%, and in that the composition of the glass-ceramic (in percent by weight on an oxide basis) contains, as main constituents: Li 2 O 1.5 - 4.2 ∑ Na 2 O+K 2 O 0.2 - 1.5 MgO 0 - 3 ∑ CaO+SrO+BaO 0 - 4 ZnO 0 - 3 B 2 O 3 0 - 2 Al 2 O 3 19 - 23 SiO 2 60 - 69 TiO 2 1.5 - 6 ZrO 2 0.5 - 2 P 2 O 5 0 - 3 SnO 2 0.1 - < 0.6 ∑ TiO 2 +ZrO 2 +SnO 2 3.8 - 6 and Fe 2 O 3 0.03 - 0.3 in combination with CoO 0.05 - 0.3 NiO 0.05 - 0.3 Manganese compounds > 0 - 2 V 2 O 5 0 - 0.06 Cr 2 O 3 0 - 0.3. > 0.4% at at least one wavelength in the blue range from 380 to 500 nm, > 2% - < 12% at 630 nm, < 45% at 1600 nm, preferably < 40%, and a light transmission in the visible range of 0.5-2%, > 0.1% in the range of visible light in the total wavelength range > 500 nm, in the near infrared at 950 nm > 30%, and in that the composition of the glass-ceramic (in percent by weight on an oxide basis) contains, as main constituents: Li 2 O 1.5 - 4.2 ∑ Na 2 O+K 2 O 0.2 - 1.5 MgO 0 - 3 ∑ CaO+SrO+BaO 0 - 4 ZnO 0 - 3 B 2 O 3 0 - 2 Al 2 O 3 19 - 23 SiO 2 60 - 69 TiO 2 1.5 - 6 ZrO 2 0.5 - 2 P 2 O 5 0 - 3 SnO 2 0.1 - < 0.6 ∑ TiO 2 +ZrO 2 +SnO 2 3.8 - 6 and Fe 2 O 3 0.03 - 0.3 in combination with CoO 0.05 - 0.3 NiO 0.05 - 0.3 Manganese compounds > 0 - 2 V 2 O 5 0 - 0.06 Cr 2 O 3 0 - 0.3.
An arrangement for securing an airbag to an inflator and mounting the airbag and inflator to a motor vehicle, the arrangement comprising: a base member forming a mounting bracket adapted for attachment to the motor vehicle, the mounting bracket having a partially cylindrical shape extending through no more than 180°; and a retention member in form of a wire or cable clamp hoop including first and second ends being spaced from one another, characterized in that the first and second ends are secured to the mounting bracket, such that the retention member and the mounting bracket cooperate to define a circular opening for receiving the airbag and the inflator . a base member forming a mounting bracket adapted for attachment to the motor vehicle, the mounting bracket having a partially cylindrical shape extending through no more than 180°; and a retention member in form of a wire or cable clamp hoop including first and second ends being spaced from one another, characterized in that the first and second ends are secured to the mounting bracket, such that the retention member and the mounting bracket cooperate to define a circular opening for receiving the airbag and the inflator .
A computer-implemented method for encrypting a data transmission stream using cascading dynamic crypto periods, the method comprising the following steps in the following order: sending a first control word and a first set of functions to a recipient device for use during a first crypto period, the first crypto period comprising a number of sub-crypto periods correlated to a number of functions included in the first set of functions, wherein the first crypto period comprises at least a first sub-crypto period and a second sub-crypto period, and wherein the first sub-crypto period is a first discrete portion of the first crypto period and the second sub-crypto period is a second discrete portion of the first crypto period; encrypting the first sub-crypto period of the data transmission stream using the first control word; sending the first sub-crypto period of the encrypted data transmission stream to the recipient device; generating a first derived control word, wherein the first derived control word is generated by applying a first function from the first set of functions to retrieved data, the retrieved data comprising the first control word; encrypting the second sub-crypto period of the data transmission stream using the first derived control word; and sending the second sub-crypto period of the encrypted data transmission stream to the recipient device. sending a first control word and a first set of functions to a recipient device for use during a first crypto period, the first crypto period comprising a number of sub-crypto periods correlated to a number of functions included in the first set of functions, wherein the first crypto period comprises at least a first sub-crypto period and a second sub-crypto period, and wherein the first sub-crypto period is a first discrete portion of the first crypto period and the second sub-crypto period is a second discrete portion of the first crypto period; encrypting the first sub-crypto period of the data transmission stream using the first control word; sending the first sub-crypto period of the encrypted data transmission stream to the recipient device; generating a first derived control word, wherein the first derived control word is generated by applying a first function from the first set of functions to retrieved data, the retrieved data comprising the first control word; encrypting the second sub-crypto period of the data transmission stream using the first derived control word; and sending the second sub-crypto period of the encrypted data transmission stream to the recipient device.
An electronic device comprising a back cover , wherein the back cover comprises: a transparent cover plate ; an electrochromic film layer , wherein the electrochromic film layer and the transparent cover plate are laminated; and a shielding part , wherein the shielding part is disposed between an edge part of the electrochromic film layer and the transparent cover plate , characterized in that a thickness of the shielding part is less than 4 microns. a transparent cover plate ; an electrochromic film layer , wherein the electrochromic film layer and the transparent cover plate are laminated; and a shielding part , wherein the shielding part is disposed between an edge part of the electrochromic film layer and the transparent cover plate , characterized in that a thickness of the shielding part is less than 4 microns.
Process for producing an extruded zeolite-based SCR catalyst , the process comprising: providing individual pulverulent particles of diatomaceous earth having mesoporosity and comprising pores having a pore width of greater than 5 nm; treating the individual pulverulent particles of diatomaceous earth to develop catalytic activity in respect of SCR reactions by: hydrothermal crystallisation at a temperature of 80 to 200°C; autogenous pressurisation over a reaction time of one to ten days to form crystalline material; washing, drying and calcining the crystalline material to form a zeolite, wherein the crystalline material is calcined at a temperature of 400 to 800°C; and ion-exchanging the zeolite with iron or copper to form an ion-exchanged zeolite, extruding a catalyst composition to produce a catalyst body , drying and sintering the catalyst body to produce a catalyst having a composition consisting of 20-50 wt% of the ion-exchanged zeolite as a binder (B), 50 to 80 wt% of a further catalytically active zeolite and not more than 5 wt% further components, based on the total mass of the catalyst ; wherein the further catalytically active zeolite is an aluminosilicate zeolite and/or has an MFI, BEA, CHA, AEI, FAU, AFX or ERI framework, and is ion-exchanged with Cu and/or Fe and/or Ce. providing individual pulverulent particles of diatomaceous earth having mesoporosity and comprising pores having a pore width of greater than 5 nm; treating the individual pulverulent particles of diatomaceous earth to develop catalytic activity in respect of SCR reactions by: hydrothermal crystallisation at a temperature of 80 to 200°C; autogenous pressurisation over a reaction time of one to ten days to form crystalline material; washing, drying and calcining the crystalline material to form a zeolite, wherein the crystalline material is calcined at a temperature of 400 to 800°C; and ion-exchanging the zeolite with iron or copper to form an ion-exchanged zeolite, hydrothermal crystallisation at a temperature of 80 to 200°C; autogenous pressurisation over a reaction time of one to ten days to form crystalline material; washing, drying and calcining the crystalline material to form a zeolite, wherein the crystalline material is calcined at a temperature of 400 to 800°C; and ion-exchanging the zeolite with iron or copper to form an ion-exchanged zeolite, extruding a catalyst composition to produce a catalyst body , drying and sintering the catalyst body to produce a catalyst having a composition consisting of 20-50 wt% of the ion-exchanged zeolite as a binder (B), 50 to 80 wt% of a further catalytically active zeolite and not more than 5 wt% further components, based on the total mass of the catalyst ; wherein the further catalytically active zeolite is an aluminosilicate zeolite and/or has an MFI, BEA, CHA, AEI, FAU, AFX or ERI framework, and is ion-exchanged with Cu and/or Fe and/or Ce.
An embedded trace capacitive signet stamp comprising: a substrate ; a plurality of conductive points affixed to the substrate ; a user contact area configured to allow a user to provide capacitance to the conductive points ; a conductive layer connecting each conductive point to the user contact area ; and a top layer configured to adjoin the conductive layer ; characterized in that the top layer is configured to form a foldable handle comprising the user contact area , wherein the top layer comprises a main area and a punched out area, the punched out area being foldably connected to the main area to form the foldable handle ; and wherein the conductive layer comprises a main area and a punched out area, the punched out area of the conductive layer being the user contact area and further being foldably connected to the main area of the conductive layer to align with the foldable handle formed by the top layer , thus creating the foldable handle with the user contact area to allow the user to provide capacitance to the conductive points when the user grasps the foldable handle . a substrate ; a plurality of conductive points affixed to the substrate ; a user contact area configured to allow a user to provide capacitance to the conductive points ; a conductive layer connecting each conductive point to the user contact area ; and a top layer configured to adjoin the conductive layer ; characterized in that the top layer is configured to form a foldable handle comprising the user contact area , wherein the top layer comprises a main area and a punched out area, the punched out area being foldably connected to the main area to form the foldable handle ; and wherein the conductive layer comprises a main area and a punched out area, the punched out area of the conductive layer being the user contact area and further being foldably connected to the main area of the conductive layer to align with the foldable handle formed by the top layer , thus creating the foldable handle with the user contact area to allow the user to provide capacitance to the conductive points when the user grasps the foldable handle .
A medical device (100; 200; 300), comprising: an elongate tubular body formed of one or more woven filaments having a constrained configuration, the elongate tubular body having an expanded configuration with a proximal portion of the elongate tubular body expanded into a proximal retention member , a distal portion of the elongate tubular body expanded into a distal retention member , and a cylindrical saddle region extending between the proximal and distal retention members ; wherein the proximal retention member , distal retention member and cylindrical saddle region define an open interior passage configured to permit flow therethrough; and wherein an outer surface of the distal retention member includes at least one surface feature extending in a helical configuration around a full circumference of the distal retention member . an elongate tubular body formed of one or more woven filaments having a constrained configuration, the elongate tubular body having an expanded configuration with a proximal portion of the elongate tubular body expanded into a proximal retention member , a distal portion of the elongate tubular body expanded into a distal retention member , and a cylindrical saddle region extending between the proximal and distal retention members ; wherein the proximal retention member , distal retention member and cylindrical saddle region define an open interior passage configured to permit flow therethrough; and wherein an outer surface of the distal retention member includes at least one surface feature extending in a helical configuration around a full circumference of the distal retention member .
Vehicle having a head airbag which is integrated in the vehicle body and is covered so as to be screened from view by a roof liner which has a roof liner opening for a functional part , in particular a reading light, a fastening arrangement being provided on the rear side of the roof liner facing away from a vehicle interior , the functional part being held by means of the fastening arrangement, the fastening arrangement being associated with at least one shielding element which is arranged in a head airbag deployment direction (E) between the head airbag and the fastening arrangement so that, when the airbag is deployed, a region of the fastening arrangement that is affected by an interfering contour is shielded from the deploying head airbag , characterized in that the fastening arrangement has a mounting frame which is connected to the rear side of the roof liner and surrounds the roof liner opening and the functional part in a frame-like manner, and in that the functional part is held on the mounting frame by means of a spring element , and in that the region which is affected by interfering contours and is shielded by the shielding element is formed on the spring element .