mhurhangee/patent-ind-claim-en huggingface dataset:
A humanized antibody or a fragment thereof which binds to the BAG3 protein and which comprises: a) a heavy chain amino acid sequence as set forth in SEQ ID N. 12 or at least the variable domain thereof or an amino acid sequence having a sequence identity of at least 95% thereof, and b) a light chain amino acid sequence as set forth in SEQ ID N. 20 or at least the variable domain thereof or an amino acid sequence having a sequence identity of at least 95% thereof; characterized in that the heavy chain amino acid sequence or at least the variable domain thereof or an amino acid sequence having a sequence identity of at least 95% thereof, comprises the CDRs regions having the following amino acid composition: H-CDR1 comprises the amino acids GFNIKDTYMY (SEQ ID N. 3), H-CDR2 comprises the amino acids GVDPANGNTRYDPKFQG (SEQ ID N. 4), H-CDR3 comprises the amino acids DGAMDY (SEQ ID N. 5) and the light chain amino acid sequence or at least the variable domain thereof or an amino acid sequence having a sequence identity of at least 95% thereof, comprises the CDRs regions having the following amino acid composition: L-CDR1 comprises the amino acids KSSQSLLYSSNQKNYLA (SEQ ID N. 6), L-CDR2 comprises the amino acids WASTRES (SEQ ID N. 7) and L-CDR3 comprises the amino acids QQYYTYPLT (SEQ ID N. 8). a) a heavy chain amino acid sequence as set forth in SEQ ID N. 12 or at least the variable domain thereof or an amino acid sequence having a sequence identity of at least 95% thereof, and b) a light chain amino acid sequence as set forth in SEQ ID N. 20 or at least the variable domain thereof or an amino acid sequence having a sequence identity of at least 95% thereof; characterized in that the heavy chain amino acid sequence or at least the variable domain thereof or an amino acid sequence having a sequence identity of at least 95% thereof, comprises the CDRs regions having the following amino acid composition: H-CDR1 comprises the amino acids GFNIKDTYMY (SEQ ID N. 3), H-CDR2 comprises the amino acids GVDPANGNTRYDPKFQG (SEQ ID N. 4), H-CDR3 comprises the amino acids DGAMDY (SEQ ID N. 5) and the light chain amino acid sequence or at least the variable domain thereof or an amino acid sequence having a sequence identity of at least 95% thereof, comprises the CDRs regions having the following amino acid composition: L-CDR1 comprises the amino acids KSSQSLLYSSNQKNYLA (SEQ ID N. 6), L-CDR2 comprises the amino acids WASTRES (SEQ ID N. 7) and L-CDR3 comprises the amino acids QQYYTYPLT (SEQ ID N. 8).
An illumination device comprising: a coherent light source which emits a coherent light; an optical scan unit which is capable of changing an optical path of the coherent light from the coherent light source ; an optical path adjustment element on which the coherent light from the optical scan unit is incident, an incidence position (P1, P2, P3) of the coherent light on the optical path adjustment element varying depending on the optical path determined by the optical scan unit , an emission angle of the coherent light of the optical path adjustment element varying depending on the incidence position (P1, P2, P3); and a light diffusion element on which the coherent light from the optical path adjustment element is incident, the light diffusion element diffusing the coherent light and emitting diffused light, an emission angle of the diffused light varying depending on an incidence angle of the coherent light, wherein the optical path adjustment element makes the coherent light be incident on a particular range of the light diffusion element irrespective of the incidence position (P1, P2, P3) of the coherent light from the optical scan unit ; wherein a plurality of illumination regions can be selectively illuminated with the diffused light emerging from the light diffusion element ; and wherein the illumination region is changed depending on the incidence position (P1, P2, P3) of the coherent light on the optical path adjustment element . a coherent light source which emits a coherent light; an optical scan unit which is capable of changing an optical path of the coherent light from the coherent light source ; an optical path adjustment element on which the coherent light from the optical scan unit is incident, an incidence position (P1, P2, P3) of the coherent light on the optical path adjustment element varying depending on the optical path determined by the optical scan unit , an emission angle of the coherent light of the optical path adjustment element varying depending on the incidence position (P1, P2, P3); and a light diffusion element on which the coherent light from the optical path adjustment element is incident, the light diffusion element diffusing the coherent light and emitting diffused light, an emission angle of the diffused light varying depending on an incidence angle of the coherent light, wherein the optical path adjustment element makes the coherent light be incident on a particular range of the light diffusion element irrespective of the incidence position (P1, P2, P3) of the coherent light from the optical scan unit ; wherein a plurality of illumination regions can be selectively illuminated with the diffused light emerging from the light diffusion element ; and wherein the illumination region is changed depending on the incidence position (P1, P2, P3) of the coherent light on the optical path adjustment element .
A balloon device for treating a calcified structure of a body tissue comprising: an elongated body extending between a proximal end and a distal end and having at least one lumen extending along at least a portion thereof and defining a fluid path; and at least one inflatable balloon secured to the elongated body and fluidly connected to the at least one lumen, the at least one lumen being fluidly further connectable to a fluid source for selectively inflating and deflating the at least one inflatable balloon, the at least one inflatable balloon for treating the calcified structure when being inflated, being positioned in close proximity to the calcified structure and vibrating, mechanical vibrations of the at least one inflatable balloon causing destructuration of the calcified structure, wherein the elongated body is connectable to a vibration source for inducing mechanical vibrations into the at least one inflatable balloon when inflated, further wherein at least one inflatable balloon is adapted to receive an electrically conductive fluid therein from the fluid source, and wherein the vibration source comprises a light source and the balloon device further comprises at least one transducer and at least one optical waveguide operatively connected to the light source, wherein the at least one transducer is operable to receive light from the light source and to generate high energy mechanical pulses in the conductive fluid, thereby inducing the mechanical vibrations of the at least one inflatable balloon. an elongated body extending between a proximal end and a distal end and having at least one lumen extending along at least a portion thereof and defining a fluid path; and at least one inflatable balloon secured to the elongated body and fluidly connected to the at least one lumen, the at least one lumen being fluidly further connectable to a fluid source for selectively inflating and deflating the at least one inflatable balloon, the at least one inflatable balloon for treating the calcified structure when being inflated, being positioned in close proximity to the calcified structure and vibrating, mechanical vibrations of the at least one inflatable balloon causing destructuration of the calcified structure, wherein the elongated body is connectable to a vibration source for inducing mechanical vibrations into the at least one inflatable balloon when inflated, further wherein at least one inflatable balloon is adapted to receive an electrically conductive fluid therein from the fluid source, and wherein the vibration source comprises a light source and the balloon device further comprises at least one transducer and at least one optical waveguide operatively connected to the light source, wherein the at least one transducer is operable to receive light from the light source and to generate high energy mechanical pulses in the conductive fluid, thereby inducing the mechanical vibrations of the at least one inflatable balloon.
A method of performing intra-frame and inter-frame image processing comprising: alternating first and second image capture operations, wherein the first image capture operation comprises capturing one or more first images (IA) using an image sensor based on a first set of image capture parameters (PA) and the second image capture operation comprises capturing one or more second images (IB) using the image sensor based on a second set of image capture parameters (PB), the values of the parameters of the first set being modified between each of said first image capture operations based on changing scene conditions detected by image processing of one or more of the first images (IA) captured during at least one of the first image capture operations, and the values of the parameters of the second set remaining constant between each of the second image capture operations or varying by less than a significant amount between the capture of successive images; performing intra-frame image processing on each first image (IA) captured during the first image capture operation; and performing inter-frame image processing on each second image (IB) captured during the second image capture operation. alternating first and second image capture operations, wherein the first image capture operation comprises capturing one or more first images (IA) using an image sensor based on a first set of image capture parameters (PA) and the second image capture operation comprises capturing one or more second images (IB) using the image sensor based on a second set of image capture parameters (PB), the values of the parameters of the first set being modified between each of said first image capture operations based on changing scene conditions detected by image processing of one or more of the first images (IA) captured during at least one of the first image capture operations, and the values of the parameters of the second set remaining constant between each of the second image capture operations or varying by less than a significant amount between the capture of successive images; performing intra-frame image processing on each first image (IA) captured during the first image capture operation; and performing inter-frame image processing on each second image (IB) captured during the second image capture operation.
A process comprising providing at least one amine and a first base oil to a rotor stator mixer which is operating at a shear rate of less than 5000 reciprocal seconds (1/sec), adding a isocyanate to the mixer in the shear zone and in a position such that a residence time in the mixer after addition of the isocyanate is less than 20 seconds to produce a paste comprising a polyurea; wherein the isocyanate is introduced directly to the shear zone and close to the outlet of the rotor stator mixer.
A circuit for mitigating EMI generated from an input terminal of an IC (Integrated Circuit) including a power input port (a) connected to a first input and an operational mode selection port (b) connected to a second input, the circuit comprising: an LC filter unit connected to the power input port(a), the LC filter unit including a capacitor directly connected to the power input port(a) and a ground, and inductor directly connected to the power input port(a); a diode (D1) having an anode terminal directly connected to the first input and a cathode terminal directly connected to the inductor of the LC filter ; and a primary resistor connectively interposed between the cathode terminal of the diode(Dl) and the second input; wherein the primary resistor is a pull-up resistor configured to absorb the EMI generated from the input terminal of the IC . an LC filter unit connected to the power input port(a), the LC filter unit including a capacitor directly connected to the power input port(a) and a ground, and inductor directly connected to the power input port(a); a diode (D1) having an anode terminal directly connected to the first input and a cathode terminal directly connected to the inductor of the LC filter ; and a primary resistor connectively interposed between the cathode terminal of the diode(Dl) and the second input; wherein the primary resistor is a pull-up resistor configured to absorb the EMI generated from the input terminal of the IC .
A method performed by a mobile phone for receiving a fax transmission, comprising: receiving an incoming call on the mobile phone; answering the incoming call upon receiving a command from a user of the mobile phone to answer the incoming call; detecting, by a program on the mobile phone after the incoming call is answered, that the incoming call is a fax transmission by determining whether a fax tone is present in the incoming call; placing an outgoing call, by the program, to a fax server; and conferencing, by the program, the incoming call with the outgoing call to the fax server such that the fax server receives the fax transmission. receiving an incoming call on the mobile phone; answering the incoming call upon receiving a command from a user of the mobile phone to answer the incoming call; detecting, by a program on the mobile phone after the incoming call is answered, that the incoming call is a fax transmission by determining whether a fax tone is present in the incoming call; placing an outgoing call, by the program, to a fax server; and conferencing, by the program, the incoming call with the outgoing call to the fax server such that the fax server receives the fax transmission.
A direct solvent free method for the selective synthesis of trialkoxysilanes having the formula SiH(OR) 3 , wherein each R is a C 1 -C 4 alkyl, the method comprising the steps of: providing a mixture of metallic silicon and copper based catalyst in a packed bed reactor, wherein the copper based catalyst is selected from the group consisting of copper (II) hydroxide, copper (II) oxide, and mixtures thereof; heating the mixture at an activation temperature of 180°C ―250°C; introducing C 1 -C 4 alcohol to the reactor at a reaction temperature of 180°C ― less than 250°C; condensing the reaction products in a heat exchanger; and collecting the condensed reaction products, wherein neither the metallic silicon, the copper based catalyst, or the silicon-catalyst mixture is subjected to any washing step with any acid or other preparatory solution, including a hydrofluoric acid (HF) washing step. providing a mixture of metallic silicon and copper based catalyst in a packed bed reactor, wherein the copper based catalyst is selected from the group consisting of copper (II) hydroxide, copper (II) oxide, and mixtures thereof; heating the mixture at an activation temperature of 180°C ―250°C; introducing C 1 -C 4 alcohol to the reactor at a reaction temperature of 180°C ― less than 250°C; condensing the reaction products in a heat exchanger; and collecting the condensed reaction products,
An endless metal belt having a length extension/a circumference (1 1 ) of between 1 m and 200 m, a width extension (b 1 ) of between 1 m and 10 m and a thickness of between 0.3 mm and 2.5 mm which is produced by welding together multiple individual metal belt parts , characterized in that a rolling direction of the individual metal belt parts and all the weld seams extend transversely to the length extension/to the circumference (1 1 ) of the metal belt , wherein the rolling direction extends in parallel to the weld seams .
An organic light-emitting diode (OLED) touch-control substrate, comprising: a plurality of OLEDs, each of the OLEDs having a first electrode , a second electrode and a light-emitting layer between the first electrode and the second electrode ; a plurality of first touch-control electrodes disposed in a same layer with first electrodes of the OLEDs and insulated from the first electrodes ; a plurality of second touch-control electrodes disposed in a same layer with second electrodes of the OLEDs and insulated from the second electrodes and the first touch-control electrodes ; and a first insulation layer disposed between the layer having the first touch-control electrodes and the first electrodes and the layer having the second touch-control electrodes and the second electrodes , having via holes at positions corresponding to light-emitting layers of the OLEDs, the light-emitting layers being in the via holes . a plurality of OLEDs, each of the OLEDs having a first electrode , a second electrode and a light-emitting layer between the first electrode and the second electrode ; a plurality of first touch-control electrodes disposed in a same layer with first electrodes of the OLEDs and insulated from the first electrodes ; a plurality of second touch-control electrodes disposed in a same layer with second electrodes of the OLEDs and insulated from the second electrodes and the first touch-control electrodes ; and a first insulation layer disposed between the layer having the first touch-control electrodes and the first electrodes and the layer having the second touch-control electrodes and the second electrodes , having via holes at positions corresponding to light-emitting layers of the OLEDs, the light-emitting layers being in the via holes .
Grease collection arrangement for collecting waste grease from a grease lubricated rotor blade pitch bearing of a wind turbine , whereby the grease collection arrangement comprises at least one waste grease collector and multiple extraction tubes , wherein each one of the multiple extraction tubes is connected to the at least one waste grease collector and the multiple extraction tubes are configured to be connected to multiple grease outlets of the rotor blade pitch bearing , whereby the grease collection arrangement is configured such that the waste grease from the rotor blade pitch bearing can flow into the at least one waste grease collector by means of gravity and centrifugal forces, characterized in that the multiple extraction tubes comprise short tubes and long tubes, the long tubes being relatively longer than the short tubes, wherein the short tubes are configured for collecting the waste grease and the long tubes are configured for pressure relief.
Method of manufacturing a plurality of resonators, each formed by a membrane sealing a cavity, the method comprises: a) a step to form a plurality of cavities , advantageously identical, starting from one face called the front face of a support substrate , the plurality of cavities comprise central cavities and peripheral cavities arranged around the assembly formed by the central cavities ; b) a step to form membranes , called central membranes and peripheral membranes respectively, covering central cavities and peripheral cavities respectively, by the transfer of a coverage film on the front face of the support substrate; the method being characterized in that it comprises: c) a step to remove at least part of the peripheral membranes . a) a step to form a plurality of cavities , advantageously identical, starting from one face called the front face of a support substrate , the plurality of cavities comprise central cavities and peripheral cavities arranged around the assembly formed by the central cavities ; b) a step to form membranes , called central membranes and peripheral membranes respectively, covering central cavities and peripheral cavities respectively, by the transfer of a coverage film on the front face of the support substrate; the method being characterized in that it comprises: c) a step to remove at least part of the peripheral membranes .
A sterilizer comprising: a housing ; a chamber disposed inside the housing and configured to house a medical instrument; a lid configured to open and close an opening provided above the chamber; and a water supply tank , wherein the water supply tank is detachably attached to a front surface of the housing , the water supply tank is supported from below by a receiving portion formed on the front surface and a lower side of the housing, the water supply tank is detachable from the housing with the receiving portion as a fulcrum by pulling forward a handle portion formed on an upper side of a front surface of the water supply tank, the water supply tank includes a connection end of a pumping-up pipe for pumping up water inside the water supply tank on a rear surface of the water supply tank, the housing includes a connection end of a water supply pipe for sending water in the water supply tank to the chamber, and when the water supply tank is attached to the housing, the connection end of the pumping-up pipe and the connection end of the water supply pipe are connected to each other, and further wherein the connection end of the water supply pipe protrudes along a tangent to a rotation direction of the water supply tank about the fulcrum. a housing ; a chamber disposed inside the housing and configured to house a medical instrument; a lid configured to open and close an opening provided above the chamber; and a water supply tank , wherein the water supply tank is detachably attached to a front surface of the housing , the water supply tank is supported from below by a receiving portion formed on the front surface and a lower side of the housing, the water supply tank is detachable from the housing with the receiving portion as a fulcrum by pulling forward a handle portion formed on an upper side of a front surface of the water supply tank, the water supply tank includes a connection end of a pumping-up pipe for pumping up water inside the water supply tank on a rear surface of the water supply tank, the housing includes a connection end of a water supply pipe for sending water in the water supply tank to the chamber, and when the water supply tank is attached to the housing, the connection end of the pumping-up pipe and the connection end of the water supply pipe are connected to each other, and further wherein the connection end of the water supply pipe protrudes along a tangent to a rotation direction of the water supply tank about the fulcrum.