mhurhangee/patent-ind-claim-en huggingface dataset:
A method for filtering a reference torque (Cc) to an engine loss torque (Cpm1, Cpm2) to be reached during a deceleration of a motor vehicle provided with a thermal power train, including: - a step of determining said reference torque (Cc), and - a step of preventive filtering, including a step of applying at least one torque gradient (P3, P3') to a preventive torque (Cp) in order gradually to reach said engine loss torque (Cpm1, Cpm2), characterized in that a decrease of said torque gradient (P3, P3') is calibrated independently from a transition time (t30, t30') between a start instant and an end instant of applying said calibrated toque gradient (P3, P3') in order to meet said engine loss torque (Cpm1, Cpm2). - a step of determining said reference torque (Cc), and - a step of preventive filtering, including a step of applying at least one torque gradient (P3, P3') to a preventive torque (Cp) in order gradually to reach said engine loss torque (Cpm1, Cpm2),
A process for preparing for compound of formula A; wherein X is an amine protecting group R is a hydroxyl protecting group comprising the steps of: (i) treating the compound of formula F, with nitromethane in the presence of solvent and strong base or catalyst to obtain compound of formula H; (ii) treating the compound of formula H with the reducing agent in the presence of solvent to obtain compound of formula Y; (iii) treating compound of formula Y with amine protecting group to obtain formula Z wherein X is an amine protecting group R is a hydroxyl protecting group, (iv) and then treating with hydroxyl protecting group to obtain compound of formula A. wherein X is an amine protecting group R is a hydroxyl protecting group comprising the steps of: (i) treating the compound of formula F, with nitromethane in the presence of solvent and strong base or catalyst to obtain compound of formula H; (ii) treating the compound of formula H with the reducing agent in the presence of solvent to obtain compound of formula Y; (iii) treating compound of formula Y with amine protecting group to obtain formula Z wherein X is an amine protecting group R is a hydroxyl protecting group, (iv) and then treating with hydroxyl protecting group to obtain compound of formula A. (i) treating the compound of formula F, with nitromethane in the presence of solvent and strong base or catalyst to obtain compound of formula H; (ii) treating the compound of formula H with the reducing agent in the presence of solvent to obtain compound of formula Y; (iii) treating compound of formula Y with amine protecting group to obtain formula Z wherein X is an amine protecting group R is a hydroxyl protecting group, wherein X is an amine protecting group R is a hydroxyl protecting group, (iv) and then treating with hydroxyl protecting group to obtain compound of formula A.
Fastening assembly kit having: a bolt with an abutment portion and a shank extending therefrom in a longitudinal direction (L), said shank having a longitudinal injection channel which extends along the longitudinal direction (L) and a transverse injection channel which extends between said longitudinal injection channel and an outer circumferential surface of the shank ; a bolt securing element which can be fixed to the shank ; and a disc which can be arranged between the bolt securing element and the abutment portion of the bolt and which has an aperture through which the shank of the bolt can be guided, and an outer ventilation groove which extends from a circumferential edge of the disc in the direction of the aperture and which discharges into an inner ventilation groove extending along the aperture . a bolt with an abutment portion and a shank extending therefrom in a longitudinal direction (L), said shank having a longitudinal injection channel which extends along the longitudinal direction (L) and a transverse injection channel which extends between said longitudinal injection channel and an outer circumferential surface of the shank ; a bolt securing element which can be fixed to the shank ; and a disc which can be arranged between the bolt securing element and the abutment portion of the bolt and which has an aperture through which the shank of the bolt can be guided, and an outer ventilation groove which extends from a circumferential edge of the disc in the direction of the aperture and which discharges into an inner ventilation groove extending along the aperture .
A spotting fluid composition for freeing differentially stuck pipe in a well, the spotting fluid composition comprising: an emulsifier; an invert emulsion including: an external phase comprising an alkyl ester produced from the esterification of a vegetable oil, wherein the alkyl ester comprises at least one of an oleic sunflower oil ester, a canola oil ester, a jojoba oil ester, and a castor oil ester; and an internal phase comprising water. an emulsifier; an invert emulsion including: an external phase comprising an alkyl ester produced from the esterification of a vegetable oil, wherein the alkyl ester comprises at least one of an oleic sunflower oil ester, a canola oil ester, a jojoba oil ester, and a castor oil ester; and an internal phase comprising water. an external phase comprising an alkyl ester produced from the esterification of a vegetable oil, wherein the alkyl ester comprises at least one of an oleic sunflower oil ester, a canola oil ester, a jojoba oil ester, and a castor oil ester; and an internal phase comprising water.
An ingot , having a volume between 0.15 m 3 and 0.80 m 3 and a surface area to volume ratio between 10 m -1 and 18 m -1 , made of at least one metal, having longitudinal faces extending between two end faces and comprising at least one hole extending from one of said longitudinal faces to a second longitudinal face, the maximum distance between any point of the hole periphery , to the closest longitudinal face , being noted MaxL, said at least one hole being configured such that said maximum distance MaxL is smaller than the minimal distance, being noted MinE, between any point of the hole periphery and the closest end face .
A multi-channel working cannula, wherein the cannula includes a guide tube unit including a main guide tube and an accessory guide tube with the main guide tube and the accessory guide tube integrally arranged; wherein one end of the guide tube unit is the inlet end, and the other end is the outlet end wherein the inlet end of the guide tube unit is provided with a guide plate , the guide plate being provided with a first through hole that is adapted to the guide tube unit, the inlet end of the guide tube unit being inserted into the first through hole , and the guide tube unit being fixedly connected to the guide plate ; wherein the length of the main guide tube is greater than that of the accessory guide tube , and an outlet end of the accessory guide tube is attached to an outer side wall of the main guide tube at an attachment site; the multi-channel working cannula being characterized in that, an endoscope view hole is provided through the outer side wall of the main guide tube , at the attachment site of the outlet end of the accessory guide tube , such that an instrument in the main guide tube can be more easily observed through the accessory guide tube ; wherein the endoscope view hole is an elongated hole and extends along the length direction of the accessory guide tube . wherein the cannula includes a guide tube unit including a main guide tube and an accessory guide tube with the main guide tube and the accessory guide tube integrally arranged; wherein one end of the guide tube unit is the inlet end, and the other end is the outlet end wherein the inlet end of the guide tube unit is provided with a guide plate , the guide plate being provided with a first through hole that is adapted to the guide tube unit, the inlet end of the guide tube unit being inserted into the first through hole , and the guide tube unit being fixedly connected to the guide plate ; wherein the length of the main guide tube is greater than that of the accessory guide tube , and an outlet end of the accessory guide tube is attached to an outer side wall of the main guide tube at an attachment site; the multi-channel working cannula being characterized in that, an endoscope view hole is provided through the outer side wall of the main guide tube , at the attachment site of the outlet end of the accessory guide tube , such that an instrument in the main guide tube can be more easily observed through the accessory guide tube ; wherein the endoscope view hole is an elongated hole and extends along the length direction of the accessory guide tube .
A user equipment for providing a rehabilitation exercise to a patient affected by a neurodegenerative disease, said user equipment comprising a processor, a display and a motion sensing input device, said exercise comprising playing a videogame during which a target moving along a trajectory is presented to the patient on the display of the user equipment, said playing the videogame comprising tracking the target from a starting point of said trajectory to an end point of said trajectory, wherein said processor is configured to run said videogame, said display is configured to show said target moving on said display along said trajectory according to said videogame, and said motion input sensing device is configured to transduce a motion of said patient into a corresponding motion of a marker on said display for tracking said target along said trajectory according to said videogame, said processor being further configured to: - before the patient starts said exercise, select said trajectory for the target and a maximum speed of the target; and - during said exercise, adjust a current speed of the target on the basis of said maximum speed and of a distance between said target and said marker on the display, wherein said videogame comprises a number of frames, and said processor is further configured to compute said distance between the target and the marker and to adjust the current speed value of the target on a frame-by-frame basis. - before the patient starts said exercise, select said trajectory for the target and a maximum speed of the target; and - during said exercise, adjust a current speed of the target on the basis of said maximum speed and of a distance between said target and said marker on the display,
A component comprising a first part and a second part, wherein said second part is in contact with said first part, wherein: (i) said first part comprises a first polymer which is semi-crystalline and includes phenylene moieties, carbonyl moieties and ether moieties; (ii) said second part comprises a second polymer which is semi-crystalline and includes a repeat unit of formula -O-Ph-O-Ph-CO-Ph- VI and a repeat unit of formula -O-Ph-Ph-O-Ph-CO-Ph- VII wherein Ph represents a phenylene moiety; (iii) the melting temperature (Tm) of the second polymer is less than the melting temperature (Tm) of the first polymer, wherein Tm is obtained by differential scanning calorimetry, by identifying a melting temperature at which a main peak of a melting endotherm reaches a maximum on a DSC trace as described in Example 13. (i) said first part comprises a first polymer which is semi-crystalline and includes phenylene moieties, carbonyl moieties and ether moieties; (ii) said second part comprises a second polymer which is semi-crystalline and includes a repeat unit of formula -O-Ph-O-Ph-CO-Ph- VI and a repeat unit of formula -O-Ph-Ph-O-Ph-CO-Ph- VII wherein Ph represents a phenylene moiety; a repeat unit of formula -O-Ph-O-Ph-CO-Ph- VI and a repeat unit of formula -O-Ph-Ph-O-Ph-CO-Ph- VII wherein Ph represents a phenylene moiety; (iii) the melting temperature (Tm) of the second polymer is less than the melting temperature (Tm) of the first polymer, wherein Tm is obtained by differential scanning calorimetry, by identifying a melting temperature at which a main peak of a melting endotherm reaches a maximum on a DSC trace as described in Example 13.
A method comprising the successive steps of: a) etching a cavity in a first silicon layer while leaving in place, at the bottom of the cavity, a second silicon layer corresponding to a portion of the thickness of the first layer; b) growing in said cavity , by epitaxy from the second layer , a third germanium or silicon-germanium layer ; c) growing in said cavity , by epitaxy from the third layer , a fourth silicon layer to fill said cavity; d) defining by etching all the way to the second layer a first strip in the fourth layer and a second strip in the third layer , the first strip resting on the second strip and having a same width as the second strip ; e) selectively etching a portion of the second strip to decrease the width of the second strip; f) filling with an insulator cavities arranged on either side of the first and second strips; g) depositing an insulating layer ; and h) bonding, by molecular bonding, a layer of III-V materials to the insulating layer . a) etching a cavity in a first silicon layer while leaving in place, at the bottom of the cavity, a second silicon layer corresponding to a portion of the thickness of the first layer; b) growing in said cavity , by epitaxy from the second layer , a third germanium or silicon-germanium layer ; c) growing in said cavity , by epitaxy from the third layer , a fourth silicon layer to fill said cavity; d) defining by etching all the way to the second layer a first strip in the fourth layer and a second strip in the third layer , the first strip resting on the second strip and having a same width as the second strip ; e) selectively etching a portion of the second strip to decrease the width of the second strip; f) filling with an insulator cavities arranged on either side of the first and second strips; g) depositing an insulating layer ; and h) bonding, by molecular bonding, a layer of III-V materials to the insulating layer .
A housing assembly comprising a base , a front assembly configured to engage with the base , a latch that protrudes inward from an inner surface of one of the front assembly and the base , and a cam supported on the other of the front assembly and the base , wherein the cam is rotatable about a rotational axis and includes a cam surface that is engaged with the latch in such a way that rotation of the cam about the rotational axis results in a translation of the front assembly relative to the base in a direction parallel to the rotational axis . a base , a front assembly configured to engage with the base , a latch that protrudes inward from an inner surface of one of the front assembly and the base , and a cam supported on the other of the front assembly and the base , wherein the cam is rotatable about a rotational axis and includes a cam surface that is engaged with the latch in such a way that rotation of the cam about the rotational axis results in a translation of the front assembly relative to the base in a direction parallel to the rotational axis .
A method performed by a system comprising a network equipment , a User Equipment, UE, , and a target network node for controlling a handover of the User Equipment, UE, , between cells or beams, from a source network node to the target network node , wherein the method comprises: - providing, by the network equipment , to the UE and the target network node , an information comprising a representation of the UE specific sequence, - obtaining by the UE , from the network equipment , the information comprising the representation of the UE specific sequence; wherein the UE specific sequence comprises a binary sequence, or a sequence of digits, or other sequence that is used to identify a particular UE ; - receiving at the UE a signal comprising the representation of the UE specific sequence from the target network node ; - identifying by the UE , the signal that is received from the target network node based on the obtained information, wherein the identified signal is interpreted, by the UE , as a handover command; and - transmitting a message, from the UE to the target network node , for establishing the radio link with the target network node based on the identified signal. - providing, by the network equipment , to the UE and the target network node , an information comprising a representation of the UE specific sequence, - obtaining by the UE , from the network equipment , the information comprising the representation of the UE specific sequence; wherein the UE specific sequence comprises a binary sequence, or a sequence of digits, or other sequence that is used to identify a particular UE ; - receiving at the UE a signal comprising the representation of the UE specific sequence from the target network node ; - identifying by the UE , the signal that is received from the target network node based on the obtained information, wherein the identified signal is interpreted, by the UE , as a handover command; and - transmitting a message, from the UE to the target network node , for establishing the radio link with the target network node based on the identified signal.
Endoscope having an endoscope handle and an endoscope shank , wherein the endoscope handle interior accommodates a heating element for heating the endoscope handle interior, a temperature sensor for detecting the temperature of the endoscope handle interior heated by the heating element , and a pressure sensor for detecting the pressure of the endoscope handle interior heated by the heating element , and wherein the endoscope interior is sealed off from the environment.
A method, comprising: providing a lead frame strip , having a thickness, including a plurality of lead frames , wherein the lead frame strip includes at least one depression , going only partially through the thickness of the lead frame strip , which becomes, after singulation of the lead frame strip into individual lead frames, at least one recess at a corner of an end of a lead of a lead frame, wherein the lead has a bottom surface , a top surface , an exposed outer end extending between the bottom and top surfaces, and side surfaces extending between the bottom and top surfaces, and wherein the recess is disposed within the bottom surface and the exposed outer end of the lead , and the recess does not extend to the top surface or to either of the side surfaces; characterised by : filling the at least one depression with a solder wettable material ; and singulating the lead frame strip into individual lead frames while the at least one depression is filled with the solder wettable material. providing a lead frame strip , having a thickness, including a plurality of lead frames , wherein the lead frame strip includes at least one depression , going only partially through the thickness of the lead frame strip , which becomes, after singulation of the lead frame strip into individual lead frames, at least one recess at a corner of an end of a lead of a lead frame, wherein the lead has a bottom surface , a top surface , an exposed outer end extending between the bottom and top surfaces, and side surfaces extending between the bottom and top surfaces, and wherein the recess is disposed within the bottom surface and the exposed outer end of the lead , and the recess does not extend to the top surface or to either of the side surfaces; characterised by : filling the at least one depression with a solder wettable material ; and singulating the lead frame strip into individual lead frames while the at least one depression is filled with the solder wettable material. filling the at least one depression with a solder wettable material ; and singulating the lead frame strip into individual lead frames while the at least one depression is filled with the solder wettable material.
A laser marking system for marking laser-markable items , the system comprising: a laser energy source configured to generate a laser beam; a laser controller configured to focus the laser beam over a field of view greater than a size of the laser-markable items ; and a start-up target that includes laser-safe material and is located within the field of view; wherein the laser controller is further configured to: point the laser beam at the start-up target during a start-up phase of the laser energy source ; and focus the laser beam on one of the laser-markable items after the start-up phase. a laser energy source configured to generate a laser beam; a laser controller configured to focus the laser beam over a field of view greater than a size of the laser-markable items ; and a start-up target that includes laser-safe material and is located within the field of view; wherein the laser controller is further configured to: point the laser beam at the start-up target during a start-up phase of the laser energy source ; and focus the laser beam on one of the laser-markable items after the start-up phase. point the laser beam at the start-up target during a start-up phase of the laser energy source ; and focus the laser beam on one of the laser-markable items after the start-up phase.
An apparatus comprising: (a) a sensor suitable for detecting when a subject is exhaling; and (b) a device adapted to deliver a mechanical stimulus to the subject's thorax or abdomen, wherein the stimulus is triggered by the onset of the expiratory phase of the subject's breathing, and is delivered during at least part of the expiratory phase of the subject's breathing in response to a signal generated by said sensor; characterised in that the device comprises means for mechanically compressing the lower anterior thorax or abdomen. (a) a sensor suitable for detecting when a subject is exhaling; and (b) a device adapted to deliver a mechanical stimulus to the subject's thorax or abdomen,
A switching amplifier comprising: a bidirectional buck-boost converter comprising a first terminal, a second terminal and a common terminal; wherein the bidirectional buck-boost converter is configured to operate with a load circuit connected between the first and second terminals, wherein the first terminal is connected to a first node (N1) and the second terminal is connected to a second node (N2), and the switching amplifier being characterised in that : the bidirectional buck-boost converter is configured to be connected to a power supply providing a power supply voltage (VP) such that each of the first and the second nodes are dynamically connected to and disconnected from the power supply voltage such that the first node draws electrical energy from the power supply via the first terminal at-and-near positive voltage peaks of a differential voltage between the second node and the first node and the second node draws electrical energy from the power supply via the second terminal at-and-near negative voltage peaks of the differential voltage between the second node and the first node.