Abstract: A status monitoring device for a fenestration unit is provided. The device is positioned in or on the fenestration unit and includes a panel position sensor and a lock status sensor. The device is capable of transmitting panel position data and lock status data to a remote device, trigger an audible alarm on the device or the remote device, trigger a visual alarm on the device or the remote device, or a combination of these.

Abstract: A status monitoring device for a fenestration unit is provided. The device is positioned in or on the fenestration unit and includes a panel position sensor and a lock status sensor. The device is capable of transmitting panel position data and lock status data to a remote device, trigger an audible alarm on the device or the remote device, trigger a visual alarm on the device or the remote device, or a combination of these.

Abstract: A status monitoring device for a fenestration unit is provided. The device is positioned in or on the fenestration unit and includes a panel position sensor and a lock status sensor. The device is capable of transmitting panel position data and lock status data to a remote device, trigger an audible alarm on the device or the remote device, trigger a visual alarm on the device or the remote device, or a combination of these.

Abstract: A status monitoring device for a fenestration unit is provided. The device is positioned in or on the fenestration unit and includes a panel position sensor and a lock status sensor. The device is capable of transmitting panel position data and lock status data to a remote device, trigger an audible alarm on the device or the remote device, trigger a visual alarm on the device or the remote device, or a combination of these.

Abstract: A status monitoring device for a fenestration unit is provided. The device is positioned in or on the fenestration unit and includes a panel position sensor and a lock status sensor. The device is capable of transmitting panel position data and lock status data to a remote device, trigger an audible alarm on the device or the remote device, trigger a visual alarm on the device or the remote device, or a combination of these.

Abstract: An electronic circuit for cryptographic processing, comprising a first combinatorial logical circuit, arranged to perform a first set of logical operations on input data and to produce output data, the output data having a functional relation to the input data, further comprising at least a second combinatorial logical circuit, arranged to perform a second set of logical operations on the same input data and to produce output data, the output data having an identical functional relation to the input data, wherein the first set of logical operations is different from the second set of logical operations, and wherein the electronic circuit is arranged to dynamically select one combinatorial logical circuit, of a set comprising at least the first combinatorial logical circuit and the second combinatorial logical circuit, for performing logical operations on the input data and producing output data.

Abstract: An electronic device is provided which comprises a plurality of processing units (IP1-IP6) and a flit-synchronous network-based interconnect (N) for coupling the processing units (IP1-IP6). The network-based interconnect (N) comprises at least one first and at least one second link. The at least one second link comprises N pipeline stages. The communication via the at least one second link and the N pipeline stages constitutes a word-asynchronous communication.

Abstract: A status monitoring device for a fenestration unit is provided. The device is positioned in or on the fenestration unit and includes a panel position sensor and a lock status sensor. The device is capable of transmitting panel position data and lock status data to a remote device, trigger an audible alarm on the device or the remote device, trigger a visual alarm on the device or the remote device, or a combination of these.

Abstract: An electronic circuit is provided that comprises a plurality of storage elements (101-105) arranged for storing of data elements, and a plurality of processing elements. The plurality of processing elements processes the data elements stored in the storage elements. In operation, the points in time at which respective storage elements load their data elements are mutually different in order to meet a maximum allowable value of the power consumption peaks.

Abstract: Data is communicated between an asynchronously operating circuit (10) and a clocked operating sub-circuit (16, 17). A data signal is supplied from the asynchronously operating sub-circuit (10) accompanied by a blocking/non blocking control signal. A request signal from the asynchronously operating sub-circuit (10) when the data signal and the control signal are being supplied. The data is stored in response to the request at least if the control signal supplied with the data has a first value. The request signal is routed through a path through handshake elements in a handshake circuit (20, 30,40) that is arranged to generate an acknowledge signal in response to the request signal to the asynchronously operating sub-circuit (10).

Abstract: An electronic circuit for cryptographic processing, comprising a first combinatorial logical circuit, arranged to perform a first set of logical operations on input data and to produce output data, the output data having a functional relation to the input data, further comprising at least a second combinatorial logical circuit, arranged to perform a second set of logical operations on the same input data and to produce output data, the output data having an identical functional relation to the input data, wherein the first set of logical operations is different from the second set of logical operations, and wherein the electronic circuit is arranged to dynamically select one combinatorial logical circuit, of a set comprising at least the first combinatorial logical circuit and the second combinatorial logical circuit, for performing logical operations on the input data and producing output data.

Abstract: An asynchronously operated FIFO pipe-line (10a-d) comprises a plurality of handshake chains functionally in parallel. Successive data items are each passed by selecting a chain dependent on a value of the data item. The FIFO pipelines (10a-d) comprise successive pipe-line stages, each pipe-line stage with respective handshake stages (12, 16) of each of the plurality of hand-shake chains. A coordination circuit (15) prevents handshakes in mutually different ones of handshake chains from overtaking one another. Preferably four phase handshake protocols are used with logic gates (26, 28) between the request line ((REQ1- i, REQ0- i) and the acknowledge line (ACK1- i, ACK0- i) at the input of a stage and a set-reset latch (20, 22) with a set input coupled to the output of the logic gate (26, 28).

Abstract: An electronic circuit is provided that comprises a plurality of storage elements (101-105) arranged for storing of data elements, and a plurality of processing elements. The plurality of processing elements processes the data elements stored in the storage elements. In operation, the points in time at which respective storage elements load their data elements are mutually different in order to meet a maximum allowable value of the power consumption peaks.

Abstract: FIG. 1c shows a logic tree 10c comprising a plurality of logic paths (27, 29, 31, 33) connected at a root 11c. The length of each path represents the delay of the path at a nominal supply voltage. The voltage supply structure for the logic tree 10c is partitioned as shown in FIG. 3c, according to the delay of each logic path. For example, logic path (29) having the worst-case delay is supplied a voltage level V1, for example the nominal supply voltage. Logic paths (27) and (31), having a shorter delay, are supplied a second voltage level V2, which is lower than the first voltage level V1. Logic path (33), having an even shorter delay, is supplied a third voltage level V3, which is lower than V2 and V1. The voltage structure enables the voltage level and hence power consumption to be reduced without increasing the overall worst-case delay of the logic tree 10c.

Abstract: Silver halide photographic material comprising finely divided solid spherical polymer beads having an average particle size between about 0.1 and about 10 .mu.m and having a glass transition temperature of at least 40.degree. C. The polymer beads are prepared by a one step reaction in an aqueous reaction medium whereby the polymer beads are formed by the simultaneous reaction of1) a silane monomer comprising an .alpha.,.beta.-ethylenically unsaturated group,2) at least one .alpha.,.beta.-ethylenically unsaturated monomer, different from the silane monomer, capable of forming a polymer that is soluble in the monomer(s) present in the aqueous solvent mixture but which is insoluble in water,3) a free radical-forming polymerization initiator that is soluble in the aqueous solvent mixture, and4) a graft-polymerizable polymer containing hydrophilic groups, and capable of forming a graft polymer that remains soluble in the aqueous reaction mixture.

Abstract: A silver halide photographic material is provided comprising at least one silver halide emulsion layer and an outermost layer comprising an hydrophillic binder and polymeric spacing particles characterized in that(i) the outermost layer has a thickness between 0.3 to 0.9 pm and(ii) the polymeric spacing particles comprise at the surface alkali metal carboxylate or sulphonate groups equivalent to an acid value greater than 1.0 mg KOH per 1 g of polymeric spacing particles. In a preferred embodiment the said spacing particles have a volume average diameter (d.sub.v50) that is 5 to 30 times larger than the thickness of the outermost layer.

Abstract: Silver halide photographic material comprising finely divided solid spherical polymer beads having an average particle size between about 0.1 and about 10 .mu.m and having a glass transition temperature of at least 40.degree. C. The polymer beads are prepared by a one step reaction in an aqueous reaction medium whereby the polymer beads are formed by the simultaneous reaction of1) a silane monomer comprising an .alpha.,.beta.-ethylenically unsaturated group,2) at least one .alpha.,.beta.-ethylenically unsaturated monomer, different from the silane monomer, capable of forming a polymer that is soluble in the monomer(s) present in the aqueous solvent mixture but which is insoluble in water3) a free radical-forming polymerization initiator that is soluble in the aqueous solvent mixture, and4) a graft-polymerizable polymer containing hydrophilic groups, and capable of forming a graft polymer that remains soluble in the aqueous reaction mixture.

Abstract: A method is provided for the preparation of finely divided solid spherical polymer beads having an average particle size between about 0.1 and about 10 .mu.m and having a glass transition temperature of at least 40.degree. C. The method is a one step reaction in an aqueous reaction medium and said polymer beads are formed by the simultaneous reaction of1) a silane monomer comprising an .alpha.,.beta.-ethylenically unsaturated group,2) at least one .alpha.,.beta.-ethylenically unsaturated monomer, different from said silane monomer, capable of forming a polymer that is soluble in the monomer(s) present in said aqueous solvent mixture but which is insoluble in water3) a free radical-forming polymerization initiator that is soluble in the aqueous solvent mixture, and4) a graft-polymerizable polymer containing hydrophilic groups, and capable of forming a graft polymer that remains soluble in the aqueous reaction mixture.

Abstract: Bead polymers having an average particle diameter of from 0.5 to 10 .mu.m and a narrow particle diameter distribution of K.ltoreq.0.25 and containing from 1 to 60% by weight of chemically bound fluorine are suitable for use as matting agents and spacers in photographic recording materials.

Abstract: The present invention provides a method of hardening a proteinaceous layer of a photographic silver halide element by incorporating a modified dextran in said proteinaceous layer, said modified dextran being the reaction product of dextran and an alkyl haloformate, a substituted alkyl haloformate, an aryl haloformate, or a substituted aryl haloformate. The invention also provides a photographic element comprising a said reaction product in at least one proteinaceous silver halide emulsion layer and/or in another proteinaceous layer coated thereon.