mhurhangee/patent-ind-claim-en huggingface dataset:
A portable electronic device, comprising: an outer periphery component , comprising: a metal antenna section having a first exterior surface, a first interior surface opposite the first exterior surface, and a first coupling structure extending from the first interior surface; a metal section having a second exterior surface, a second interior surface opposite the second exterior surface, and a second coupling structure extending from the second interior surface; and characterized by: a knuckle having a third exterior surface and formed of an insulating material that is overmolded within and around the first and second coupling structures to physically couple the metal antenna section and the metal section, the knuckle separating the metal antenna section and the metal section. a metal antenna section having a first exterior surface, a first interior surface opposite the first exterior surface, and a first coupling structure extending from the first interior surface; a metal section having a second exterior surface, a second interior surface opposite the second exterior surface, and a second coupling structure extending from the second interior surface; and characterized by: a knuckle having a third exterior surface and formed of an insulating material that is overmolded within and around the first and second coupling structures to physically couple the metal antenna section and the metal section, the knuckle separating the metal antenna section and the metal section.
A curved glass thermal forming device, wherein the curved glass thermal forming device comprises a furnace body having a feed port and a discharge port , the furnace body comprises a heating segment , a forming segment and a cooling segment , a rotary table capable of rotating and used for circularly conveying glass to the heating segment , the forming segment and the cooling segment in sequence is arranged in the furnace body , a plurality of female dies for carrying glass are arranged on the rotary table so as to cooperate with a male die in the forming segment to perform press fit forming on the glass , and characterized in that said forming device further comprises a heating structure capable of cooperating with the female dies to directly perform local heating on a required curved surface forming portion of the glass is arranged on the heating segment ; wherein the heating structure is provided with a heating block for heating the glass , the heating block is provided with a concave surface and a convex surface corresponding to a heating surface of the glass , the convex surface and the surface of the required curved surface forming portion of the glass are arranged correspondingly.
A method for preparing an aromatic polyisocyanate in an isocyanate plant comprising a reaction section for a phosgenation reaction, the method comprising the steps of: a) providing a primary aromatic amine stream and a phosgene stream via an inlet in the reaction section; b) reacting the primary aromatic amines with the phosgene compounds in the reaction section to obtain an isocyanate comprising reaction product; c1) measuring CO 2 concentration in the gases coming from the reaction section; d1) analyzing the CO 2 concentration coming from the reaction section by comparing with a background CO 2 concentration, wherein the background CO 2 concentration comprises the CO 2 concentration in the phosgene stream; e) adjusting conditions in the phosgenation reaction in case the CO 2 concentration in the gases coming from the reaction section is higher than a background CO 2 concentration and/or deviates with more than 2 vol%, preferably more than 1 vol%, more preferably more than 0.6 vol% in view of the total volume of the gases coming from the reaction section. a) providing a primary aromatic amine stream and a phosgene stream via an inlet in the reaction section; b) reacting the primary aromatic amines with the phosgene compounds in the reaction section to obtain an isocyanate comprising reaction product; c1) measuring CO 2 concentration in the gases coming from the reaction section; d1) analyzing the CO 2 concentration coming from the reaction section by comparing with a background CO 2 concentration, wherein the background CO 2 concentration comprises the CO 2 concentration in the phosgene stream; e) adjusting conditions in the phosgenation reaction in case the CO 2 concentration in the gases coming from the reaction section is higher than a background CO 2 concentration and/or deviates with more than 2 vol%, preferably more than 1 vol%, more preferably more than 0.6 vol% in view of the total volume of the gases coming from the reaction section.
A method for adjusting a receive beam gain by a user equipment, UE, in a wireless communication system, the method comprising: estimating a signal quality value of a reference signal received from a base station, BS; transmitting, to the BS, information related to the estimated signal quality value; receiving, from the BS, control information including a modulation and coding scheme, MCS, level and an MCS offset, wherein the MCS offset is a difference between a data transmission power and a reference signal transmission power; comparing the signal quality value with a threshold, wherein the threshold is a minimum value of received signal quality value for successfully decoding data received from the BS; and adjusting a first receiving beam gain of RF chains used for data reception by determining a number of RF chains to be turned on/off among the RF chains included in the UE based on a result of the comparison; wherein the threshold is determined based on the MCS level and the MCS offset, wherein the MCS offset is one of a positive value, a negative value, and 0, wherein if the data transmission power is lower than the reference signal transmission power, the MCS offset is the positive value, and wherein if the data transmission power is higher than the reference signal transmission power, the MCS offset is the negative value. estimating a signal quality value of a reference signal received from a base station, BS; transmitting, to the BS, information related to the estimated signal quality value; receiving, from the BS, control information including a modulation and coding scheme, MCS, level and an MCS offset, wherein the MCS offset is a difference between a data transmission power and a reference signal transmission power; comparing the signal quality value with a threshold, wherein the threshold is a minimum value of received signal quality value for successfully decoding data received from the BS; and adjusting a first receiving beam gain of RF chains used for data reception by determining a number of RF chains to be turned on/off among the RF chains included in the UE based on a result of the comparison; wherein the threshold is determined based on the MCS level and the MCS offset, wherein the MCS offset is one of a positive value, a negative value, and 0, wherein if the data transmission power is lower than the reference signal transmission power, the MCS offset is the positive value, and wherein if the data transmission power is higher than the reference signal transmission power, the MCS offset is the negative value.
An assembly allowing selective adjustment of wheel alignment on a vehicle, comprising: an axle defining axial, radial, and circumferential directions, the axle comprising a flange and a spindle having an outboard end and an inboard end ; a sleeve having an inner surface of revolution (SR1) about a first axis (AR1) and an outer surface of revolution (SR2) about a second axis (AR2), wherein the first axis and the second axis are at a non-zero angle a from each other, the sleeve defining an interior into which the spindle is releasably received, the sleeve having an inboard end and an outboard end; characterized by a first plurality of apertures positioned at an inboard end of the sleeve and extending along the axial direction, the first plurality of apertures spaced apart along the circumferential direction and at varying radial distances from the first axis; a second plurality of apertures positioned on the flange near an inboard end of the spindle and extending along an axial direction, the second plurality of apertures spaced apart along the circumferential direction and at varying radial distances from the first axis; wherein the first and second plurality of apertures provide a plurality of matching pairs of apertures that can be aligned along the axial direction by rotation of the sleeve to provide changes in wheel alignment; and a removable lock extending between the apertures of one of the matching pairs of apertures so as to prevent the rotation of the sleeve relative to the spindle. an axle defining axial, radial, and circumferential directions, the axle comprising a flange and a spindle having an outboard end and an inboard end ; a sleeve having an inner surface of revolution (SR1) about a first axis (AR1) and an outer surface of revolution (SR2) about a second axis (AR2), wherein the first axis and the second axis are at a non-zero angle a from each other, the sleeve defining an interior into which the spindle is releasably received, the sleeve having an inboard end and an outboard end; characterized by a first plurality of apertures positioned at an inboard end of the sleeve and extending along the axial direction, the first plurality of apertures spaced apart along the circumferential direction and at varying radial distances from the first axis; a second plurality of apertures positioned on the flange near an inboard end of the spindle and extending along an axial direction, the second plurality of apertures spaced apart along the circumferential direction and at varying radial distances from the first axis; wherein the first and second plurality of apertures provide a plurality of matching pairs of apertures that can be aligned along the axial direction by rotation of the sleeve to provide changes in wheel alignment; and a removable lock extending between the apertures of one of the matching pairs of apertures so as to prevent the rotation of the sleeve relative to the spindle.
An ozone generating device, comprising: an excimer lamp having an arc tube in which a luminescent gas is enclosed, a first electrode, and a second electrode, wherein the arc tube includes a cylindrical portion having a first end portion and a second end portion, a first diameter-reduced portion provided continuously from the first end portion, a diameter of which decreases as a distance from the first end portion towards the outer end increases, and a second diameter-reduced portion provided continuously from the second end portion, a diameter of which decreases as a distance from the second end portion towards the outer end increases, the first electrode is provided for an outer periphery surface of the first end portion, the second electrode is provided for an outer periphery surface of the second end portion, the arc tube is fixed via the cylindrical portion, and the first electrode is not provided over the first diameter-reduced portion, and/or the second electrode is not provided over the second diameter-reduced portion. an excimer lamp having an arc tube in which a luminescent gas is enclosed, a first electrode, and a second electrode, wherein the arc tube includes a cylindrical portion having a first end portion and a second end portion, a first diameter-reduced portion provided continuously from the first end portion, a diameter of which decreases as a distance from the first end portion towards the outer end increases, and a second diameter-reduced portion provided continuously from the second end portion, a diameter of which decreases as a distance from the second end portion towards the outer end increases, the first electrode is provided for an outer periphery surface of the first end portion, the second electrode is provided for an outer periphery surface of the second end portion, the arc tube is fixed via the cylindrical portion, and the first electrode is not provided over the first diameter-reduced portion, and/or the second electrode is not provided over the second diameter-reduced portion.
Plug-in connector for an electronic control device , having a connection body , which is designed as an injection-moulded part and consists of plastic, for making contact with a mating plug which can be contact-connected to the control device , wherein the connection body has a collar-like connecting section for the mating plug, wherein the connecting section surrounds first connection plug pins which can be contact-connected to a first circuit carrier , which forms an electronic circuit, of the control device , and having at least one antenna element (30; 35, 36; 44 to 46), which interacts with an antenna electronics system and can be connected to the electronic circuit of the first circuit carrier , characterized in that , in order to form a common assembly (25; 25a) , the at least one antenna element (30; 35, 36; 44 to 46) together with the antenna electronics system are arranged on a second circuit carrier .
A method for manufacturing a middle frame for mobile terminal, characterized by comprising: providing (S101, S201) a metal plate ; forming (S102) a plurality of elongated protrusions arranged in parallel on the metal plate , the plurality of elongated protrusions each extending along a length direction of the metal plate ; forming (S103, S205) a tubular blank by bending the metal plate such that each of the plurality of elongated protrusions extends around the tubular blank ; and cutting (S104, S206) the tubular blank into a plurality of annular pieces , wherein each of the plurality of annular pieces comprises one of the plurality of elongated protrusions . providing (S101, S201) a metal plate ; forming (S102) a plurality of elongated protrusions arranged in parallel on the metal plate , the plurality of elongated protrusions each extending along a length direction of the metal plate ; forming (S103, S205) a tubular blank by bending the metal plate such that each of the plurality of elongated protrusions extends around the tubular blank ; and cutting (S104, S206) the tubular blank into a plurality of annular pieces , wherein each of the plurality of annular pieces comprises one of the plurality of elongated protrusions .
Active glazing (I) having an integrated display device, comprising - an electrically conductive coating on a pane , - an active layer structure on the electrically conductive coating , - another electrically conductive layer on the active layer structure , - at least one electrode formed by insulation regions in the electrically conductive coating , and - a display surface formed by one of the at least one electrode based on the active layer structure, wherein a sum of the display surfaces is at most 1/10 of the area of the active glazing (I) and the display surfaces can be switched regardless of the state of the remainder of the active glazing (I) characterized in that the insulation regions have a width of 5 μm to 5 mm. - an electrically conductive coating on a pane , - an active layer structure on the electrically conductive coating , - another electrically conductive layer on the active layer structure , - at least one electrode formed by insulation regions in the electrically conductive coating , and - a display surface formed by one of the at least one electrode based on the active layer structure,
A blowout preventer assembly comprising an annular blow out preventer having an annular packing unit and an actuator operable to reduce the internal diameter of the annular packing unit , the assembly further comprising a stripping sleeve having a tubular elastomeric sleeve which in use is positioned generally centrally of the packing unit so that the packing unit surrounds at least a portion of the elastomeric sleeve , characterised in that the actuator comprises a piston movable generally parallel to the longitudinal axis of the blowout preventer by the supply of pressurised fluid to the annular blow out preventer , and in that the stripping sleeve is retrievable by: relaxing the annular packing unit and bringing a drill bit or a larger outer diameter lower drilling assembly to surface.
Method for the sequential measurement of a plurality of optical pulses emitted by semiconductor-based light sources, whereby - the pulsed light radiation enters an Ulbricht-sphere via an inlet opening , - a first portion of the light radiation that exits the Ulbricht sphere following interaction with the same through a first outlet opening is measured by means of at least one first detector and - a second portion of the light radiation, which exits the Ulbricht sphere without interacting with it through a second outlet opening, is measured by means of at least a second detector , which measures the temporal progression of the individual optical pulses, the second detector comprising a photodiode, an A/D converter and a digital memory, which records the temporal progression of the voltage and/or current of the photodiode. - the pulsed light radiation enters an Ulbricht-sphere via an inlet opening , - a first portion of the light radiation that exits the Ulbricht sphere following interaction with the same through a first outlet opening is measured by means of at least one first detector and - a second portion of the light radiation, which exits the Ulbricht sphere without interacting with it through a second outlet opening, is measured by means of at least a second detector , which measures the temporal progression of the individual optical pulses, the second detector comprising a photodiode, an A/D converter and a digital memory, which records the temporal progression of the voltage and/or current of the photodiode.
A process for producing a wax-free cannabis extract, said process comprising the following steps: i) suspending a cannabis plant biomass with a mixture of water and water-miscible solvent such that in the suspension the weight ratio of total water to water-miscible solvent is between 3:1 and 1:1 and keeping the suspension under agitation for at least 10 minutes, at a temperature not exceeding 50°C, without correcting the pH; ii) correct the pH of the suspension obtained from step i) to pH between 6.5 and 10.5, if necessary, and filter away the biomass; iii) extract the filtrate by addition of an organic solvent immiscible with said mixture, acidify to pH between 5.5 and 4.0, and recover the organic phase. i) suspending a cannabis plant biomass with a mixture of water and water-miscible solvent such that in the suspension the weight ratio of total water to water-miscible solvent is between 3:1 and 1:1 and keeping the suspension under agitation for at least 10 minutes, at a temperature not exceeding 50°C, without correcting the pH; ii) correct the pH of the suspension obtained from step i) to pH between 6.5 and 10.5, if necessary, and filter away the biomass; iii) extract the filtrate by addition of an organic solvent immiscible with said mixture, acidify to pH between 5.5 and 4.0, and recover the organic phase.
A cooling element for a metallurgical furnace or shaft furnace comprising: a body with a front face and an opposite rear face , said body having at least one coolant channel therein; wherein in use said front face is turned towards the furnace interior, and preferably comprises alternating ribs and grooves; and at least one wear detection probe embedded in said body to detect wear thereof, characterized in that said wear detection probe includes a plurality of conductive loops positioned at predetermined depths below the front face of said body and are electrically insulated therefrom, each loop being connected to a pair of terminals on the rear face of said body, so that wear of said body can be detected by a change of an electrical characteristic of a said loop(s) due to abrasion; wherein said conductive loops are formed as conductive lines on a board each conductive loop describes a generally U-shape, and the loops are nested within one another, said conductive loops generally extend from the rear side in a thickness direction of said body so that an end section, forming a wearable section, of each loop is located at said predetermined distance (d1, d2, d3) from said front face; said probe is arranged in a through bore or blind bore in said body; said probe comprises a cylindrical housing surrounding said board with said conductive loops, said cylindrical housing having a shape matching the shape of said bore; and said cylindrical housing is made from the same material as said cooling element body . a body with a front face and an opposite rear face , said body having at least one coolant channel therein; wherein in use said front face is turned towards the furnace interior, and preferably comprises alternating ribs and grooves; and at least one wear detection probe embedded in said body to detect wear thereof, characterized in that said wear detection probe includes a plurality of conductive loops positioned at predetermined depths below the front face of said body and are electrically insulated therefrom, each loop being connected to a pair of terminals on the rear face of said body, so that wear of said body can be detected by a change of an electrical characteristic of a said loop(s) due to abrasion; wherein said conductive loops are formed as conductive lines on a board each conductive loop describes a generally U-shape, and the loops are nested within one another, said conductive loops generally extend from the rear side in a thickness direction of said body so that an end section, forming a wearable section, of each loop is located at said predetermined distance (d1, d2, d3) from said front face; said probe is arranged in a through bore or blind bore in said body; said probe comprises a cylindrical housing surrounding said board with said conductive loops, said cylindrical housing having a shape matching the shape of said bore; and said cylindrical housing is made from the same material as said cooling element body .
Method for identifying defects in the running surfaces of the bearing shells and in the roller bodies of ceramic hybrid bearings, wherein the outer or inner ferromagnetic bearing shell with outer ring or inner ring of the ceramic hybrid bearing is magnetically encoded at least in a subregion , and wherein the magnetic encoding of the bearing shell with outer ring or inner ring is used as a generator for checking the running surfaces of the bearing shells with outer ring or inner ring and the ceramic roller bodies, specifically ceramic balls , by means of inverse magnetostriction, characterized in that two or more spatially separated magnetic fields which oppose one another, specifically magnetic structures , are formed in the subregion of the outer or inner ferromagnetic bearing shell, wherein a plurality of sensors outside the outer ring measure the two or more magnetic fields, wherein a final pressure profile in at least one subregion of the running surfaces of the bearing shells owing to an exerted pressure of at least one roller body on the at least one subregion of the bearing shells is ascertained from the difference between the two or more magnetic fields, and wherein a defect is identified by means of a comparison of the final pressure profile with a known pressure profile of a damaged or undamaged bearing.