mhurhangee/ep-ind-claims huggingface dataset:
A fiber optic termination arrangement comprising: a first optical fiber with a core having a uniform core diameter surrounded by cladding, the first optical fibre having; a first end having a first outer surface; a second end having a second outer surface; a second optical fibre operably spliced to the second end of the first optical fibre; and a third optical fibre or an optical receiving/transmitting device; the second outer surface of the first optical fibre having a smaller diameter to the first outer surface and being sized to match an outer surface of the second optical fiber having a core having the same uniform core diameter as the core of the first optical fiber to facilitate the splicing between the second end of the first optical fiber and a third end of the second optical fiber, the first outer surface interfacing with a connector operationally aligning the core of the first optical fiber with a core of the third optical fiber or the optical receiving/transmitting device; the fibre optic termination arrangement further comprising a transition region wherein a third outer surface of the first optical fiber varies in diameter to transition from the first outer surface to the second outer surface. a first optical fiber with a core having a uniform core diameter surrounded by cladding, the first optical fibre having; a first end having a first outer surface; a second end having a second outer surface; a second optical fibre operably spliced to the second end of the first optical fibre; and a third optical fibre or an optical receiving/transmitting device; the second outer surface of the first optical fibre having a smaller diameter to the first outer surface and being sized to match an outer surface of the second optical fiber having a core having the same uniform core diameter as the core of the first optical fiber to facilitate the splicing between the second end of the first optical fiber and a third end of the second optical fiber, the first outer surface interfacing with a connector operationally aligning the core of the first optical fiber with a core of the third optical fiber or the optical receiving/transmitting device; the fibre optic termination arrangement further comprising a transition region wherein a third outer surface of the first optical fiber varies in diameter to transition from the first outer surface to the second outer surface.
Insulated multilayer panel (10, 20, 30, 40, 50) for realizing covers comprising: - a first fretted sheet (101, 301, 401) - a second fretted sheet (102, 302, 402), - a layer in insulating material (103, 303, 403) interposed between said first and second sheet, characterized in that said second fretted sheet (102, 302, 402) is geometrically equal to said first fretted sheet (101, 301, 401), so that said panel (10, 20, 30, 40, 50) can be installed independently with the one or the other surface facing upwards and in that said first fretted sheet (101, 301, 401) projects with respect to said layer in insulating material (103, 303, 403) in the direction orthogonal to the fret one for a width equal to the end rib, and said second fretted sheet (102, 302, 402) projects with respect to said layer in insulating material (103, 303, 403) in the same direction and opposite with respect to the projection of said first fretted sheet for a width equal to the end rib (104, 304). - a first fretted sheet (101, 301, 401) - a second fretted sheet (102, 302, 402), - a layer in insulating material (103, 303, 403) interposed between said first and second sheet, characterized in that
A method comprising: transmitting, by a wireless device, a sidelink transmission comprising a transport block; and receiving, via a feedback resource, a feedback for the transport block, wherein the feedback resource is from: first feedback resources in response to the sidelink transmission indicating one of: unicast; or groupcast with a first feedback operation, wherein the first feedback resources are used for both unicast and groupcast with the first feedback operation; and second feedback resources in response to the sidelink transmission indicating groupcast with a second feedback operation. transmitting, by a wireless device, a sidelink transmission comprising a transport block; and receiving, via a feedback resource, a feedback for the transport block, wherein the feedback resource is from: first feedback resources in response to the sidelink transmission indicating one of: unicast; or groupcast with a first feedback operation, wherein the first feedback resources are used for both unicast and groupcast with the first feedback operation; and first feedback resources in response to the sidelink transmission indicating one of: unicast; or groupcast with a first feedback operation, wherein the first feedback resources are used for both unicast and groupcast with the first feedback operation; and unicast; or groupcast with a first feedback operation, wherein the first feedback resources are used for both unicast and groupcast with the first feedback operation; and second feedback resources in response to the sidelink transmission indicating groupcast with a second feedback operation.
A device for controlling a petrol combustion engine of a motor vehicle configured to take into account a temperature (22, 23) of an exhaust catalyst of the engine, a richness at the inlet of the catalyst and an oxygen level at the inlet of the catalyst, characterized in that it is configured to carry out a determining of a maximum permissible temperature of the catalyst as a function of the richness measured by a lambda probe, and of the oxygen level measured by a sensor or determined by using a calculation model, and to control a modification of at least one parameter from a sweep rate of the engine and an engine richness, if the temperature of the catalyst is greater than the maximum permissible temperature.
A sterile drape configured to cover a medical observation apparatus to keep the medical observation apparatus sterile, the medical observation apparatus including a microscope part configured to magnify and image a microfine site of an observation object, an input part configured to receive an input of an operation instruction to the microscope part, and wherein the microscope part functions as a grip part having a bar shape to be gripped and to operate the microscope part to shift the viewing area thereof and having a surface provided with at least a portion of the input part, the sterile drape comprising: an attaching part formed of an elastic member and configured to be fixed and attached to the grip part in a state where the sterile drape covers the medical observation apparatus; wherein the attaching part has a band shape, and includes engaging parts (103, 104) respectively on both end portions in a band length direction in a manner that one of the end portions is engaged with the other end portion. a microscope part configured to magnify and image a microfine site of an observation object, an input part configured to receive an input of an operation instruction to the microscope part, and wherein the microscope part functions as a grip part having a bar shape to be gripped and to operate the microscope part to shift the viewing area thereof and having a surface provided with at least a portion of the input part, the sterile drape comprising: an attaching part formed of an elastic member and configured to be fixed and attached to the grip part in a state where the sterile drape covers the medical observation apparatus; wherein the attaching part has a band shape, and includes engaging parts (103, 104) respectively on both end portions in a band length direction in a manner that one of the end portions is engaged with the other end portion.
A single piece bandage (300, 400, 500) for a patient monitoring system, comprising: an upper bandage portion; a lower bandage portion; an adhesive configured to secure at least one of a pulse oximetry light emitting diode, LED, or a detector at an installation position between the upper bandage portion and the lower bandage portion; and a releasable liner provided between the upper and lower bandage portions (550, 552) to facilitate folding back of the upper bandage portion relative to the lower bandage portion, further wherein the upper bandage portion is configured to fold back down over at least one of the LED or detector inserted between the lower bandage portion and the upper bandage portion, wherein the releasable liner is configured so that removal of the releasable liner exposes the adhesive, the upper and lower bandage portions (550, 552) form a leaflet configured to open by the folding back of the upper bandage portion to permit installation of the pulse oximetry LED or detector and subsequently to close by replacement of the upper bandage portion over the pulse oximetry LED or detector to complete manufacture or re-manufacture of a sensor, characterized in that the bandage further includes a shielding member at the installation position, wherein the shielding member is upper metalized tape positioned on the upper bandage portion and lower metalized tape positioned on the lower bandage portion. an upper bandage portion; a lower bandage portion; an adhesive configured to secure at least one of a pulse oximetry light emitting diode, LED, or a detector at an installation position between the upper bandage portion and the lower bandage portion; and a releasable liner provided between the upper and lower bandage portions (550, 552) to facilitate folding back of the upper bandage portion relative to the lower bandage portion, further wherein the upper bandage portion is configured to fold back down over at least one of the LED or detector inserted between the lower bandage portion and the upper bandage portion, wherein the releasable liner is configured so that removal of the releasable liner exposes the adhesive, the upper and lower bandage portions (550, 552) form a leaflet configured to open by the folding back of the upper bandage portion to permit installation of the pulse oximetry LED or detector and subsequently to close by replacement of the upper bandage portion over the pulse oximetry LED or detector to complete manufacture or re-manufacture of a sensor, characterized in that the bandage further includes a shielding member at the installation position, wherein the shielding member is upper metalized tape positioned on the upper bandage portion and lower metalized tape positioned on the lower bandage portion.
An adjustable spinal implant (7010, 7110, 7210, 7310) comprising: a body portion (7016, 7116, 7216, 7316); a first wing (7012, 7112, 7312) coupled to a first end of the body portion, wherein the first wing (7012, 7112, 7312) comprises a first central portion, a first upper extension extending from the first central portion to define a first upper offset portion, and a first lower extension extending from the first central portion to define a first lower offset portion; and a second wing (7014, 7114, 7314) adjustably coupled to the body portion (7016, 7116, 7216, 7316) such that the distance between the first wing (7012, 7112, 7312) and the second wing (7014, 7114, 7314) is adjustable by a user, wherein the second wing (7014, 7114, 7314) comprises a second central portion, a second upper extension extending from the second central portion to define a second upper offset portion, and a second lower extension extending from the second central portion to define a second lower offset portion; wherein the body portion (7016, 7116, 7216, 7316) comprises at least one wedging member (7020, 7022, 7220, 7222) adjustable in a superior/inferior direction; wherein the first and second wings (7012, 7112, 7312, 2000, 7014, 7114, 7314) include inward facing surfaces (7027, 7029) configured to be positioned adjacent spinous processes of a patient; characterized in that the body comprises a wedging member pin, which is received in a recess of the wedging member and which limits the total amount of distraction provided by the wedging member" a body portion (7016, 7116, 7216, 7316); a first wing (7012, 7112, 7312) coupled to a first end of the body portion, wherein the first wing (7012, 7112, 7312) comprises a first central portion, a first upper extension extending from the first central portion to define a first upper offset portion, and a first lower extension extending from the first central portion to define a first lower offset portion; and a second wing (7014, 7114, 7314) adjustably coupled to the body portion (7016, 7116, 7216, 7316) such that the distance between the first wing (7012, 7112, 7312) and the second wing (7014, 7114, 7314) is adjustable by a user, wherein the second wing (7014, 7114, 7314) comprises a second central portion, a second upper extension extending from the second central portion to define a second upper offset portion, and a second lower extension extending from the second central portion to define a second lower offset portion; wherein the body portion (7016, 7116, 7216, 7316) comprises at least one wedging member (7020, 7022, 7220, 7222) adjustable in a superior/inferior direction; wherein the first and second wings (7012, 7112, 7312, 2000, 7014, 7114, 7314) include inward facing surfaces (7027, 7029) configured to be positioned adjacent spinous processes of a patient; characterized in that the body comprises a wedging member pin, which is received in a recess of the wedging member and which limits the total amount of distraction provided by the wedging member"
A method comprising: configuring a processor to determine whether a radio device is communicating with an additional device; configuring the radio device to enter into a power state in response to whether the radio device is communicating with the additional device; and characterized by configuring a power source to modify an amount of power supplied to the radio device in response to the power state of the radio device. configuring a processor to determine whether a radio device is communicating with an additional device; configuring the radio device to enter into a power state in response to whether the radio device is communicating with the additional device; and characterized by configuring a power source to modify an amount of power supplied to the radio device in response to the power state of the radio device.
A warewash machine for washing wares, comprising: - a chamber for receiving wares, the chamber having at least one wash zone; - a waste heat recovery unit arranged to transfer heat from exhaust air of the machine to incoming water traveling along a water flow path through the waste heat recovery unit to a booster heater of the machine; - a refrigerant medium circuit including at least a first condenser (84, 88, 90) arranged to deliver refrigerant medium heat to the incoming water; characterized by - a bypass arrangement for causing at least some incoming water to selectively bypass the waste heat recovery unit based upon subcooled refrigerant medium condition. - a chamber for receiving wares, the chamber having at least one wash zone; - a waste heat recovery unit arranged to transfer heat from exhaust air of the machine to incoming water traveling along a water flow path through the waste heat recovery unit to a booster heater of the machine; - a refrigerant medium circuit including at least a first condenser (84, 88, 90) arranged to deliver refrigerant medium heat to the incoming water; - a bypass arrangement for causing at least some incoming water to selectively bypass the waste heat recovery unit based upon subcooled refrigerant medium condition.
A method comprising: constructing a frame including: a packet including a first part (430, 420) and a second part, the first part (430, 420) separated from the second part by a gap, wherein the gap includes at least one symbol of a group comprising a channel estimation symbol and a quiet symbol; another packet including a third part (420', 430'), wherein a beginning of the third part (420', 430') is aligned with one of a group consisting of a beginning of the gap and the beginning of the quiet symbol; wherein the another packet is sent on a different channel than the packet; and transmitting the frame. constructing a frame including: a packet including a first part (430, 420) and a second part, the first part (430, 420) separated from the second part by a gap, wherein the gap includes at least one symbol of a group comprising a channel estimation symbol and a quiet symbol; another packet including a third part (420', 430'), wherein a beginning of the third part (420', 430') is aligned with one of a group consisting of a beginning of the gap and the beginning of the quiet symbol; wherein the another packet is sent on a different channel than the packet; and transmitting the frame. a packet including a first part (430, 420) and a second part, the first part (430, 420) separated from the second part by a gap, wherein the gap includes at least one symbol of a group comprising a channel estimation symbol and a quiet symbol; another packet including a third part (420', 430'), wherein a beginning of the third part (420', 430') is aligned with one of a group consisting of a beginning of the gap and the beginning of the quiet symbol; wherein the another packet is sent on a different channel than the packet; and transmitting the frame.
A composite of particles of a high crystallinity carbon and a low crystallinity carbon, wherein: - the low crystallinity carbon is a polymer derived low crystallinity carbon, - the low crystallinity carbon particles are stuck on the surface of the high crystallinity carbon particles, the low crystallinity carbon particles having been squeezed into themselves, - the low crystallinity carbon is characterized by wide-angle X ray diffraction measurements, i.e. by an average lattice constant d= of 0.350 nm or more and a crystallite size L= in the direction of C axis of 25 nm or less; - the high crystallinity carbon is characterized by wide-angle X ray diffraction measurements, i.e. by an average lattice constant d= of 0.338 nm or less and a crystallinity size L= in the direction of C axis of 40 nm or more; - the high crystallinity carbon is at least for 70% of its external surface embedded within or surrounded by matrix of the low crystallinity carbon; and - the high crystallinity carbon forms particles having a particle size ranging from 1 to 50 micrometers, said high crystallinity carbon particles being at least partially covered by particles of the low crystallinity carbon having a particle size ranging from 20 to 500 nm, said low crystallinity carbon particles being attached to the surface of said high crystallinity carbon particle. - the low crystallinity carbon is a polymer derived low crystallinity carbon, - the low crystallinity carbon particles are stuck on the surface of the high crystallinity carbon particles, the low crystallinity carbon particles having been squeezed into themselves, - the low crystallinity carbon is characterized by wide-angle X ray diffraction measurements, i.e. by an average lattice constant d= of 0.350 nm or more and a crystallite size L= in the direction of C axis of 25 nm or less; - the high crystallinity carbon is characterized by wide-angle X ray diffraction measurements, i.e. by an average lattice constant d= of 0.338 nm or less and a crystallinity size L= in the direction of C axis of 40 nm or more; - the high crystallinity carbon is at least for 70% of its external surface embedded within or surrounded by matrix of the low crystallinity carbon; and - the high crystallinity carbon forms particles having a particle size ranging from 1 to 50 micrometers, said high crystallinity carbon particles being at least partially covered by particles of the low crystallinity carbon having a particle size ranging from 20 to 500 nm, said low crystallinity carbon particles being attached to the surface of said high crystallinity carbon particle.
Guide rail for a sun protection device, having a carrier profile, wherein the carrier profile, in addition to a guide cross-section, has at least one receptacle for a functional element (34; 134; 234; 334; 434; 534; 634) arranged therein, wherein the at least one receptacle is formed between a profile leg arranged on the carrier profile and a clamping strip (44; 244) mounted on the carrier profile, characterised in that the clamping strip (44; 244) is preloaded against a stop by means of a prestressed elastic holding element (56; 256; 456), which is arranged between the functional element (34; 134; 234; 334; 434; 534; 634) and the clamping strip (44; 244).
A modified conjugated diene-based polymer comprising: a derived unit from a modification initiator; a repeating unit derived from a conjugated diene-based monomer; and a derived unit from a modifier, the modified conjugated diene-based polymer satisfying the following conditions i) to v): i) a weight average molecular weight: 1,000,000 g/mol or more, ii) a glass transition temperature: -40°C or less, iii) the N content: 70 ppm or more based on a total weight of the polymer, iv) the Si content: 70 ppm or more based on a total weight of the polymer, and v) a coupling number: greater than 2.5 and less than 5.0, wherein the modification initiator is a reaction product of a nitrogen-containing compound and an organometallic compound, and wherein the modifier comprises an aminoalkoxysilane-based compound and an aminoepoxy-based compound, wherein the weight average molecular weight, the glass transition temperature, the N content, the Si content and the coupling number are measured as disclosed in the specification. the modified conjugated diene-based polymer satisfying the following conditions i) to v): i) a weight average molecular weight: 1,000,000 g/mol or more, ii) a glass transition temperature: -40°C or less, iii) the N content: 70 ppm or more based on a total weight of the polymer, iv) the Si content: 70 ppm or more based on a total weight of the polymer, and v) a coupling number: greater than 2.5 and less than 5.0, i) a weight average molecular weight: 1,000,000 g/mol or more, ii) a glass transition temperature: -40°C or less, iii) the N content: 70 ppm or more based on a total weight of the polymer, iv) the Si content: 70 ppm or more based on a total weight of the polymer, and v) a coupling number: greater than 2.5 and less than 5.0, wherein the modification initiator is a reaction product of a nitrogen-containing compound and an organometallic compound, and wherein the modifier comprises an aminoalkoxysilane-based compound and an aminoepoxy-based compound, wherein the weight average molecular weight, the glass transition temperature, the N content, the Si content and the coupling number are measured as disclosed in the specification.